mhurhangee/patent-ind-claim-en huggingface dataset:
Belt tensioning device for a belt drive, comprising: a base member which is attachable to a stationary component; at least one tensioning arm which is pivotably supported relative to the base member around a pivot axis (A); a tensioning roller for tensioning the belt, which tensioning roller is connected to the tensioning arm so as to be rotatable around a rotational axis (B); a spring by which the tensioning arm is resiliently supported in circumferential direction; and a connecting assembly for connecting the tensioning arm to the base member , wherein the connecting assembly comprises at least two circumferentially extending base member connecting portions (41, 41',41") and at least two circumferentially extending tensioning arm connecting portions (42, 42', 42") which are connected to one another by an insertion and rotation movement; wherein the tensioning arm comprises an opening for a drive part of an assembly, which extends into the opening in a mounted condition, characterised in that a wall of the tensioning arm surrounding the opening is provided with circumferentially distributed ribs , wherein the ribs comprise a greater thickness in a foot portion than in a head portion . a base member which is attachable to a stationary component; at least one tensioning arm which is pivotably supported relative to the base member around a pivot axis (A); a tensioning roller for tensioning the belt, which tensioning roller is connected to the tensioning arm so as to be rotatable around a rotational axis (B); a spring by which the tensioning arm is resiliently supported in circumferential direction; and a connecting assembly for connecting the tensioning arm to the base member , wherein the connecting assembly comprises at least two circumferentially extending base member connecting portions (41, 41',41") and at least two circumferentially extending tensioning arm connecting portions (42, 42', 42") which are connected to one another by an insertion and rotation movement; wherein the tensioning arm comprises an opening for a drive part of an assembly, which extends into the opening in a mounted condition, characterised in that a wall of the tensioning arm surrounding the opening is provided with circumferentially distributed ribs , wherein the ribs comprise a greater thickness in a foot portion than in a head portion .
A composite slurry, wherein the composite slurry is prepared as follows: in-situ compounding a nanoceramic particle with an isocyanate through a modification reaction during which hydroxyl on a surface of the nanoceramic particle reacts with an isocyanate group in the isocyanate to obtain a modified nanoceramic particle; and in-situ compounding the modified nanoceramic particle with aramid through a grafting reaction during which an isocyanate group in the modified nanoceramic particle is grafted with an amido bond in the aramid to obtain the isocyanate-modified nanoceramic particle/aramid in-situ composite slurry, wherein the isocyanate-modified nanoceramic particle/aramid in-situ composite slurry has a viscosity of 50 mPa·s (cp) to 20,000 mPa·s (cp), the isocyanate comprises at least 2 isocyanate groups, and the viscosity is determined as described in the description. in-situ compounding a nanoceramic particle with an isocyanate through a modification reaction during which hydroxyl on a surface of the nanoceramic particle reacts with an isocyanate group in the isocyanate to obtain a modified nanoceramic particle; and in-situ compounding the modified nanoceramic particle with aramid through a grafting reaction during which an isocyanate group in the modified nanoceramic particle is grafted with an amido bond in the aramid to obtain the isocyanate-modified nanoceramic particle/aramid in-situ composite slurry, wherein the isocyanate-modified nanoceramic particle/aramid in-situ composite slurry has a viscosity of 50 mPa·s (cp) to 20,000 mPa·s (cp), the isocyanate comprises at least 2 isocyanate groups, and the viscosity is determined as described in the description.
A method of performing solid phase extraction comprising: injecting a sample comprising glycans into a solid phase extraction cartridge comprising a stationary phase, wherein the glycans are retained by the stationary phase; and washing the solid phase extraction cartridge with an eluent solution comprising a divalent or higher valency carboxylic acid at a concentration of between about 1 mM to about 100 mM to elute the glycans from the solid phase extraction cartridge. injecting a sample comprising glycans into a solid phase extraction cartridge comprising a stationary phase, wherein the glycans are retained by the stationary phase; and washing the solid phase extraction cartridge with an eluent solution comprising a divalent or higher valency carboxylic acid at a concentration of between about 1 mM to about 100 mM to elute the glycans from the solid phase extraction cartridge.
A method for manufacturing a fuel cell where a pair of separators are mutually bonded with a sealing member , the sealing member including a thermoplastic resin containing a crystalline polymer as an adhesive layer , the method for manufacturing the fuel cell comprising: preparing a stack structure in which the sealing member is disposed between the pair of separators ; heating the stack structure at a melting point or higher of the thermoplastic resin; after the heating, holding the stack structure in a temperature range of ±10°C of a crystallization temperature of the thermoplastic resin for at least one second to promote a crystallization of the thermoplastic resin; wherein the holding comprising holding the stack structure in the temperature range using a first cooling press; and after the holding, further cooling the stack structure. preparing a stack structure in which the sealing member is disposed between the pair of separators ; heating the stack structure at a melting point or higher of the thermoplastic resin; after the heating, holding the stack structure in a temperature range of ±10°C of a crystallization temperature of the thermoplastic resin for at least one second to promote a crystallization of the thermoplastic resin; wherein the holding comprising holding the stack structure in the temperature range using a first cooling press; and after the holding, further cooling the stack structure.
A method for manufacturing an aerogel sheet, the method comprising: a step (a) of preparing silica sol; a step (b) of preparing a gelling catalyst; a step (c) of spraying the silica sol, which is prepared in step (a), to a surface of a blanket to impregnate the silica sol; a step (d) of spraying the gelling catalyst, which is prepared in step (b), to the surface of the blanket, into which the silica sol is impregnated, to gelate the silica sol; a step (e) of cutting the blanket, in which the silica sol is gelated, to obtain a sheet in which the silica sol is gelated; a step (f) of aging the sheet in which the silica sol is gelated; a step (g) of injecting a coating solution into a reaction vessel in which the aged sheet is loaded to modify a surface of the sheet; and a step (h) of drying the sheet of which the surface is modified, wherein step (h) comprises a first drying step of injecting carbon dioxide at a rate of 70 L/min for ten minutes under environments of a temperature of 28°C and a pressure of 70 bar to dry the sheet of which the surface is modified, a second drying step of raising to a temperature of 50°C for 1 hour and 20 minutes to dry the sheet again, a third drying step of injecting carbon dioxide at a rate of 0.7 L/min for 20 minutes under a temperature of 50°C and a pressure of 150 bar to dry the sheet, and a fourth drying step of injecting carbon dioxide at a rate of 0.7 L/min for 20 minutes after breaking for 20 minutes to dry the sheet, and wherein step (h) further comprises a step of discharging the carbon dioxide for 2 hours after the fourth drying step. a step (a) of preparing silica sol; a step (b) of preparing a gelling catalyst; a step (c) of spraying the silica sol, which is prepared in step (a), to a surface of a blanket to impregnate the silica sol; a step (d) of spraying the gelling catalyst, which is prepared in step (b), to the surface of the blanket, into which the silica sol is impregnated, to gelate the silica sol; a step (e) of cutting the blanket, in which the silica sol is gelated, to obtain a sheet in which the silica sol is gelated; a step (f) of aging the sheet in which the silica sol is gelated; a step (g) of injecting a coating solution into a reaction vessel in which the aged sheet is loaded to modify a surface of the sheet; and a step (h) of drying the sheet of which the surface is modified, wherein step (h) comprises a first drying step of injecting carbon dioxide at a rate of 70 L/min for ten minutes under environments of a temperature of 28°C and a pressure of 70 bar to dry the sheet of which the surface is modified, a second drying step of raising to a temperature of 50°C for 1 hour and 20 minutes to dry the sheet again, a third drying step of injecting carbon dioxide at a rate of 0.7 L/min for 20 minutes under a temperature of 50°C and a pressure of 150 bar to dry the sheet, and a fourth drying step of injecting carbon dioxide at a rate of 0.7 L/min for 20 minutes after breaking for 20 minutes to dry the sheet, and wherein step (h) further comprises a step of discharging the carbon dioxide for 2 hours after the fourth drying step.
Process for manufacturing vehicle headliners comprising the following stages: a) arranging a previously shaped substrate and a decorative lining , b) applying a layer of thermosetting adhesive on the decorative lining , c) introducing the shaped substrate in a thermoforming mould , d) introducing the decorative lining together with the layer of thermosetting adhesive on the shaped substrate such that the layer of thermosetting adhesive is in front of the shaped substrate , e) closing the thermoforming mould and applying pressure to establish the union between the decorative lining and the shaped substrate through the layer of thermosetting adhesive , f) opening the thermoforming mould and extracting the headliner , the process being characterized in - applying a layer of thermosetting adhesive with a Brookfield viscosity between 1000 and 2500 mPa·s measured at 25°C with a no. 3 spindle and rotational speed of 20 rpm on the decorative lining , and - introducing the shaped substrate in a thermoforming mould at a temperature between 110 and 150 °C. a) arranging a previously shaped substrate and a decorative lining , b) applying a layer of thermosetting adhesive on the decorative lining , c) introducing the shaped substrate in a thermoforming mould , d) introducing the decorative lining together with the layer of thermosetting adhesive on the shaped substrate such that the layer of thermosetting adhesive is in front of the shaped substrate , e) closing the thermoforming mould and applying pressure to establish the union between the decorative lining and the shaped substrate through the layer of thermosetting adhesive , f) opening the thermoforming mould and extracting the headliner , - applying a layer of thermosetting adhesive with a Brookfield viscosity between 1000 and 2500 mPa·s measured at 25°C with a no. 3 spindle and rotational speed of 20 rpm on the decorative lining , and - introducing the shaped substrate in a thermoforming mould at a temperature between 110 and 150 °C.
A method for measuring a concentration of a gas in a gas mixture , said method comprising that: a light beam modulated in a ramp shape and/or in a step shape in its wavelength and additionally periodically modulated, in particular likewise in its wavelength, is transmitted from a light source , in particular a laser, into a measurement zone; the modulated light beam passes through a light-absorbing medium in the measurement zone and is detected as reception light by a detector , wherein the reception light is converted by the detector into a detector signal ; and a derivative signal is determined based on the detector signal by performing a transformation of the detector signal into the frequency range, in particular by a Fourier transform of the detector signal , wherein an evaluation of the detector signal transformed into the frequency range is performed, in particular only, for an n-fold of the frequency of the modulated light beam in order to obtain the derivative signal, characterized in that at least two measurement values of a phase of the derivative signal are determined and a correction function is calculated based on the determined measurement values of the phase of the derivative signal in order to correct the derivative signal with the correction function . a light beam modulated in a ramp shape and/or in a step shape in its wavelength and additionally periodically modulated, in particular likewise in its wavelength, is transmitted from a light source , in particular a laser, into a measurement zone; the modulated light beam passes through a light-absorbing medium in the measurement zone and is detected as reception light by a detector , wherein the reception light is converted by the detector into a detector signal ; and a derivative signal is determined based on the detector signal by performing a transformation of the detector signal into the frequency range, in particular by a Fourier transform of the detector signal , wherein an evaluation of the detector signal transformed into the frequency range is performed, in particular only, for an n-fold of the frequency of the modulated light beam in order to obtain the derivative signal, characterized in that at least two measurement values of a phase of the derivative signal are determined and a correction function is calculated based on the determined measurement values of the phase of the derivative signal in order to correct the derivative signal with the correction function .
A hospital and/or nursing bed with a side rail, wherein the side rail comprises an outer post and a central post , which each have a lower pivot point for pivotably mounting the post either on the frame of the bed or on a retaining element fastened to the bed or on a guide fastened to the bed, and the side rail further comprises at least one, preferably at least two longitudinal struts , which each are pivotably mounted at their first ends on the outer post , and their second ends are provided with a lengthening strut for determining the position and alignment of the second ends of the longitudinal struts relative to the central post , so that the side rail can be moved from a folded into an erected position by pivoting the two posts around the lower pivot points , characterized in that the at least one lengthening strut is telescopably mounted relative to a longitudinal strut , and the side rail comprises a lengthening post , wherein the lengthening post is connected with the lengthening strut via a pivot point .
A process of producing a syncrude from lignin comprising: preparing a biomass-derived lignin solvent; wherein the biomass-derived solvent comprises a hydrogen-donor solvent, mixing the lignin with the biomass-derived lignin solvent to form a slurry, feeding the slurry to a digester for lignin liquefaction, heating the slurry in the digester to dissolve the lignin and to transfer hydrogen from the biomass-derived hydrogen-donor solvent to lignin-derived fragments to produce the syncrude, wherein the lignin is dissolved without using molecular hydrogen and an added hydroliquefaction catalyst; and separating undissolved lignin and mineral matter from the syncrude, wherein the hydrogen-donor solvent the hydrogen-donor solvent is selected from a cyclic ring with one or more double bonds on the ring without being fully aromatized; a solvent prepared by conjugating double bonds in multiply unsaturated fatty acids; a modified oil prepared by appending cyclohexene groups in a linoleic acids; a modified oil prepared by appending cyclohexene groups in oleic acids; a dimer acid; esters and amides of fatty acids; a bodied soybean oil; bodied lipids from plants; bodied fatty acid esters; materials produced from pine tree processing selected from turpentine, phytosterols, and rosin acids; tetrahydrofuran diols or esters thereof. preparing a biomass-derived lignin solvent; wherein the biomass-derived solvent comprises a hydrogen-donor solvent, mixing the lignin with the biomass-derived lignin solvent to form a slurry, feeding the slurry to a digester for lignin liquefaction, heating the slurry in the digester to dissolve the lignin and to transfer hydrogen from the biomass-derived hydrogen-donor solvent to lignin-derived fragments to produce the syncrude, wherein the lignin is dissolved without using molecular hydrogen and an added hydroliquefaction catalyst; and separating undissolved lignin and mineral matter from the syncrude, wherein the hydrogen-donor solvent the hydrogen-donor solvent is selected from a cyclic ring with one or more double bonds on the ring without being fully aromatized; a solvent prepared by conjugating double bonds in multiply unsaturated fatty acids; a modified oil prepared by appending cyclohexene groups in a linoleic acids; a modified oil prepared by appending cyclohexene groups in oleic acids; a dimer acid; esters and amides of fatty acids; a bodied soybean oil; bodied lipids from plants; bodied fatty acid esters; materials produced from pine tree processing selected from turpentine, phytosterols, and rosin acids; tetrahydrofuran diols or esters thereof.
An orthopedic implant augment device comprising: a first surface having a mating face configured to mate with an implant; and a top surface comprising an opening configured to receive a fastener, a second surface configured to mate with a patient's bone or tissue, wherein the second surface and the mating face are positioned on opposite sides of the top surface and the mating face comprises an arcuate contoured shape, characterised in that said opening comprises a plurality of fins disposed in a plane that is not parallel to the mating face and is not parallel to the second surface. a first surface having a mating face configured to mate with an implant; and a top surface comprising an opening configured to receive a fastener, a second surface configured to mate with a patient's bone or tissue, wherein the second surface and the mating face are positioned on opposite sides of the top surface and the mating face comprises an arcuate contoured shape, characterised in that said opening comprises a plurality of fins disposed in a plane that is not parallel to the mating face and is not parallel to the second surface.
Ventilation device with splash-water protection for at least partial diversion of splash water in the case of penetration from an outer side of the ventilation device in the direction of an inner side of the ventilation device , wherein the ventilation device comprises multiple lamellae which are arranged one next to the other, wherein each of the lamellae has a front portion on the outer side , wherein ventilation slots are formed between the front portions , wherein at least one lamella has a diversion portion on the inner side , wherein the diversion portion is connected to the front portion via a middle portion , wherein the front portion is angled in relation to the middle portion , wherein the diversion portion is angled in relation to the middle portion , wherein, in a working position , the ventilation device has a top side and a bottom side in relation to the vertical direction , wherein, in the working position , the front portion extends from the middle portion in the direction of the top side , wherein, in the working position , the diversion portion extends from the middle portion in the direction of the bottom side , characterized in that the diversion portion has a region which, in relation to the middle portion , is oriented at an angle (α1, α2, α3) of less than 90°.
An adjuster system for a disc brake , the adjuster system comprising: a piston for applying an actuating force to a brake pad , the piston having a rotatable portion to adjust the running clearance between a brake disc and the brake pad; a manual rewind apparatus located within the piston and being in driving engagement with the piston such that when a torque is applied to the manual rewind apparatus, torque is transmitted to the piston ; and a overload device (55, 55', 55") arranged between the manual rewind apparatus and the piston , wherein the overload device (55, 55', 55") is configured to interrupt the driving engagement between the manual rewind apparatus and the piston when the torque applied is above a predetermined value. a piston for applying an actuating force to a brake pad , the piston having a rotatable portion to adjust the running clearance between a brake disc and the brake pad; a manual rewind apparatus located within the piston and being in driving engagement with the piston such that when a torque is applied to the manual rewind apparatus, torque is transmitted to the piston ; and a overload device (55, 55', 55") arranged between the manual rewind apparatus and the piston , wherein the overload device (55, 55', 55") is configured to interrupt the driving engagement between the manual rewind apparatus and the piston when the torque applied is above a predetermined value.
Apparatus for delivering percussive air pulses to a patient, comprising: at least one driver unit configured to provide pressurized, non-pulsate gas; at least one patient interface device ; at least one flexible tube configured to provide pressurized, non-pulsate gas from the at least one driver unit to the at least one patient interface device ; wherein the at least one patient interface device has a structure configured to (i) receive the pressurized, non-pulsate gas from the at least one driver unit and transform the pressurized, non-pulsate gas into a pulsed and pressurized gas, and (ii) supply at least one sub tidal volume of pulsed and pressurized gas to a patient through a patient connection orifice, characterized in that the at least one patient interface device comprises a disposable part in which a sliding venturi system is employed and a reusable part. at least one driver unit configured to provide pressurized, non-pulsate gas; at least one patient interface device ; at least one flexible tube configured to provide pressurized, non-pulsate gas from the at least one driver unit to the at least one patient interface device ; wherein the at least one patient interface device has a structure configured to (i) receive the pressurized, non-pulsate gas from the at least one driver unit and transform the pressurized, non-pulsate gas into a pulsed and pressurized gas, and (ii) supply at least one sub tidal volume of pulsed and pressurized gas to a patient through a patient connection orifice, characterized in that the at least one patient interface device comprises a disposable part in which a sliding venturi system is employed and a reusable part.
A compound or salt or solvate thereof having the general formula A wherein X14 is Lys, wherein the -NH 2 side chain group is functionalized by one of the groups selected from (S)-4-Carboxy-4-hexadecanoylamino-butyryl-(γE-Palm) and (S)-4-Carboxy-4-octadecanoylamino-butyryl- (γE-Stea); X15 is Asp or Glu; X16 is Ser or Glu; X17 is Lys, Arg, or Gin; X18 is Ala, Arg or Leu; X20 is Gln or Lys; and X28 is Ala or Asn; for use in a method of preventing and/or treating non-alcoholic fatty liver disease (NAFLD), particularly non-alcoholic fatty liver (NAFL), non-alcoholic steatohepatitis (NASH) and/or NAFLD-associated liver fibrosis. X14 is Lys, wherein the -NH 2 side chain group is functionalized by one of the groups selected from (S)-4-Carboxy-4-hexadecanoylamino-butyryl-(γE-Palm) and (S)-4-Carboxy-4-octadecanoylamino-butyryl- (γE-Stea); X15 is Asp or Glu; X16 is Ser or Glu; X17 is Lys, Arg, or Gin; X18 is Ala, Arg or Leu; X20 is Gln or Lys; and X28 is Ala or Asn; for use in a method of preventing and/or treating non-alcoholic fatty liver disease (NAFLD), particularly non-alcoholic fatty liver (NAFL), non-alcoholic steatohepatitis (NASH) and/or NAFLD-associated liver fibrosis.