mhurhangee/patent-ind-claim-en huggingface dataset:
A system (30; 100) for monitoring adhesive integrity within a cured bondline of a bonded structural assembly or composite lamina assembly , the system (30; 100) comprising: a bonded structural assembly or composite lamina assembly having a cured bondline , the cured bondline comprising: an adhesive layer ; a scrim ply layer integrated with the adhesive layer ; and, an electrical sensor network ; an electrical power source (74; 116) for providing electrical power to the electrical sensor network ; and, a digital data communications network (76; 118) for retrieving and processing data from the electrical sensor network , wherein the electrical sensor network monitors adhesive integrity within the cured bondline on demand by interpreting changes in local dynamic responses and electromechanical properties directly measured within the cured bondline , characterized in that the electrical sensor network is integrated with the scrim ply layer and comprises a plurality of spaced sensor elements in the form of active sensor nodes or separate active sensor fibers integrated into or attached onto the scrim ply layer and forming a network grid pattern (68; 72) across the scrim ply layer , wherein the sensor elements have modalities based on ultrasonic wave propagation and electromechanical impedance. a bonded structural assembly or composite lamina assembly having a cured bondline , the cured bondline comprising: an adhesive layer ; a scrim ply layer integrated with the adhesive layer ; and, an electrical sensor network ; an adhesive layer ; a scrim ply layer integrated with the adhesive layer ; and, an electrical sensor network ; an electrical power source (74; 116) for providing electrical power to the electrical sensor network ; and, a digital data communications network (76; 118) for retrieving and processing data from the electrical sensor network , wherein the electrical sensor network monitors adhesive integrity within the cured bondline on demand by interpreting changes in local dynamic responses and electromechanical properties directly measured within the cured bondline , characterized in that the electrical sensor network is integrated with the scrim ply layer and comprises a plurality of spaced sensor elements in the form of active sensor nodes or separate active sensor fibers integrated into or attached onto the scrim ply layer and forming a network grid pattern (68; 72) across the scrim ply layer , wherein the sensor elements have modalities based on ultrasonic wave propagation and electromechanical impedance.
Smoothing apparatus comprising a base intended to rest stably on a horizontal support, and a smoothing head supported by the base , the smoothing head comprising a treatment surface on which a garment to be smoothed is intended to be arranged, the treatment surface comprising at least one steam emission area provided with at least one steam outlet hole (8.1, 8. 2), the smoothing apparatus being configured such that smoothing of a garment to be smoothed is carried out by manually applying the garment to be smoothed to the treatment surface while the smoothing apparatus is resting on the base and by causing the garment to be smoothed to slide over said treatment surface , the smoothing head being arranged prominently on the base and being inclined towards a front face of the smoothing apparatus , the base comprising a base body on which the smoothing head rests, the treatment surface further comprising at least one suction area provided with a plurality of suction orifices, characterised in that the base body converges in the direction of the smoothing head and the smoothing head projects laterally with respect to the base body and wherein, when the base rests on a horizontal support, the or each normal to the treatment surface is oriented upwards or is inclined at an angle of between 0° and 45° with respect to a vertical axis, in the direction of the front face of the smoothing apparatus , and in that the suction orifices comprise at least two suction orifices which are arranged on either side of the at least one steam emission area.
A hot-stamping formed body comprising, as a chemical composition, by mass%: C: more than 0.50% and 1.00% or less; Si: 0.50% to 3.00%; Mn: more than 3.00% and 5.00% or less; Al: 0.100% to 3.000%; Co: 0.100% to 3.000%; P: 0.100% or less; S: 0.1000% or less; N: 0.0100% or less; Nb: 0% to 0.150%; Ti: 0% to 0.150%; Mo: 0% to 1.00%; Cr: 0% to 1.00%; Cu: 0% to 1.00%; V: 0% to 1.00%; W: 0% to 1.00%; Ni: 0% to 3.00%; Mg: 0% to 1.00%; Zr: 0% to 1.00%; Sb: 0% to 1.00%; Ca: 0% to 0.10%; REM: 0% to 0.30%; B: 0% to 0.0100%; and a remainder consisting of Fe and impurities; and microstructure which includes residual austenite of which an area ratio is in a range of 20% to 30%, bainite and tempered martensite of which a total area ratio is in a range of 70% to 80%, and a remainder in microstructure of which an area ratio is less than 5%, among grain boundaries of crystal grains of the bainite and the tempered martensite, a ratio of a length of a grain boundary having a rotation angle in a range of 55° to 75° to a total length of a grain boundary having a rotation angle in a range of 4° to 12°, a grain boundary having a rotation angle in a range of 49° to 54°, and a grain boundary having a rotation angle in the range of 55° to 75° to the <011> direction as a rotation axis is 30% or more, and in which the microstructure and the length of the grain boundary are determined according to the method disclosed in the description. C: more than 0.50% and 1.00% or less; Si: 0.50% to 3.00%; Mn: more than 3.00% and 5.00% or less; Al: 0.100% to 3.000%; Co: 0.100% to 3.000%; P: 0.100% or less; S: 0.1000% or less; N: 0.0100% or less; Nb: 0% to 0.150%; Ti: 0% to 0.150%; Mo: 0% to 1.00%; Cr: 0% to 1.00%; Cu: 0% to 1.00%; V: 0% to 1.00%; W: 0% to 1.00%; Ni: 0% to 3.00%; Mg: 0% to 1.00%; Zr: 0% to 1.00%; Sb: 0% to 1.00%; Ca: 0% to 0.10%; REM: 0% to 0.30%; B: 0% to 0.0100%; and a remainder consisting of Fe and impurities; and microstructure which includes residual austenite of which an area ratio is in a range of 20% to 30%, bainite and tempered martensite of which a total area ratio is in a range of 70% to 80%, and a remainder in microstructure of which an area ratio is less than 5%, among grain boundaries of crystal grains of the bainite and the tempered martensite, a ratio of a length of a grain boundary having a rotation angle in a range of 55° to 75° to a total length of a grain boundary having a rotation angle in a range of 4° to 12°, a grain boundary having a rotation angle in a range of 49° to 54°, and a grain boundary having a rotation angle in the range of 55° to 75° to the <011> direction as a rotation axis is 30% or more, and in which the microstructure and the length of the grain boundary are determined according to the method disclosed in the description.
An article of footwear, comprising: an upper formed from a flexible composite material including a sheet of carbon fiber weave material and a coating layer , the sheet of carbon fiber having an exposed side including a plurality of exposed ends ; characterized in that the coating layer (i) is applied to the exposed side and the plurality of exposed ends and (ii) presses the exposed ends down to lay flat. an upper formed from a flexible composite material including a sheet of carbon fiber weave material and a coating layer , the sheet of carbon fiber having an exposed side including a plurality of exposed ends ; characterized in that the coating layer (i) is applied to the exposed side and the plurality of exposed ends and (ii) presses the exposed ends down to lay flat.
An epoxy resin composition, comprising: an epoxy resin, a curing agent, and an inorganic filler, wherein the inorganic filler includes a plate-shaped boron nitride, characterized in that , a metal oxide film is formed on a surface of the boron nitride, wherein the metal oxide film has a multi layered structure, wherein the inorganic filler further includes aluminum oxide, and wherein the boron nitride on which the metal oxide film is formed is included at 10 to 30 parts by weight with respect to 10 parts by weight of the aluminum oxide. an epoxy resin, a curing agent, and an inorganic filler, wherein the inorganic filler includes a plate-shaped boron nitride, characterized in that , a metal oxide film is formed on a surface of the boron nitride, wherein the metal oxide film has a multi layered structure, wherein the inorganic filler further includes aluminum oxide, and wherein the boron nitride on which the metal oxide film is formed is included at 10 to 30 parts by weight with respect to 10 parts by weight of the aluminum oxide.
A low temperature-conductive silver paste for an HIT solar cell, comprising the following components in part by mass: a flake silver powder 27-46 parts; a spherical silver powder 46-65 parts; a thermosetting resin 1.5-3.5 parts; a reactive diluent 0.5-1.5 parts; an organic solvent 2-4 parts; a curing agent 0.65-0.75 parts; an imidazole curing accelerator0.05-0.15 parts; a dispersant 0.35-0.45 parts; a thixotropic agent 0.01-0.6 parts; an epoxy toughening agent 0-2.4 parts; and an ionomer 0.5-1.5 parts, in a total of 100 parts. a flake silver powder 27-46 parts; a spherical silver powder 46-65 parts; a thermosetting resin 1.5-3.5 parts; a reactive diluent 0.5-1.5 parts; an organic solvent 2-4 parts; a curing agent 0.65-0.75 parts; an imidazole curing accelerator0.05-0.15 parts; a dispersant 0.35-0.45 parts; a thixotropic agent 0.01-0.6 parts; an epoxy toughening agent 0-2.4 parts; and an ionomer 0.5-1.5 parts, in a total of 100 parts.
An expanded polypropylene resin bead containing an inorganic pigment, a hindered amine compound, and an ultraviolet light absorber, wherein: the ultraviolet light absorber contains an ultraviolet light absorber A having a molecular weight of 360 or more, and a content of the ultraviolet light absorber A in the expanded polypropylene resin bead is 0.01% by mass or more and 2% by mass or less.
Method for preparing a forskolin cyclodextrin inclusion complex comprising the steps: a) mixing forskolin and cyclodextrin in a weight ratio of 1:0.5 to 1:4, b) adding water and solvent to form a mixture, c) heating said mixture at a temperature ranging from 180°C to 230°C, specifically ranging from 200 to 230°C, ranging from 210 to 220°C, specifically at about 220°C, d) adding water to said mixture followed by mixing and allowing the mixture to precipitate, e) isolating the precipitate from the mixture and optionally drying the precipitate. a) mixing forskolin and cyclodextrin in a weight ratio of 1:0.5 to 1:4, b) adding water and solvent to form a mixture, c) heating said mixture at a temperature ranging from 180°C to 230°C, specifically ranging from 200 to 230°C, ranging from 210 to 220°C, specifically at about 220°C, d) adding water to said mixture followed by mixing and allowing the mixture to precipitate, e) isolating the precipitate from the mixture and optionally drying the precipitate.
A healing cap or a scan body for coupling to a dental component, comprising an apical end ; a coronal end comprising a side surface and a top surface the top surface having an edge that forms an asymmetrical shape, wherein the asymmetrical shape includes a first portion having an elliptical shape with a first eccentricity and a second portion having an elliptical-shape with a second eccentricity. an apical end ; a coronal end comprising a side surface and a top surface the top surface having an edge that forms an asymmetrical shape, wherein the asymmetrical shape includes a first portion having an elliptical shape with a first eccentricity and a second portion having an elliptical-shape with a second eccentricity.
A communication method, comprising: determining, by a network device, a second moment based on a first moment and a first processing delay, wherein the first moment is an estimated earliest moment at which a terminal device can send feedback information for first downlink data, the first processing delay is an estimated delay in processing second downlink data by the terminal device, a time resource carrying the second downlink data is subsequent to a time resource carrying the first downlink data, and the second moment is after the first moment; and sending, by the network device, indication information to the terminal device, wherein the indication information is used to indicate the terminal device to send feedback information for the second downlink data at the second moment or after the second moment. determining, by a network device, a second moment based on a first moment and a first processing delay, wherein the first moment is an estimated earliest moment at which a terminal device can send feedback information for first downlink data, the first processing delay is an estimated delay in processing second downlink data by the terminal device, a time resource carrying the second downlink data is subsequent to a time resource carrying the first downlink data, and the second moment is after the first moment; and sending, by the network device, indication information to the terminal device, wherein the indication information is used to indicate the terminal device to send feedback information for the second downlink data at the second moment or after the second moment.
A package comprising a flexible material comprising a polymeric film, characterized in that the package comprises; a first panel (2110-1) made from the flexible material, wherein at least part of the first panel is adjacent to a self-fold in the flexible material and about flat; a second panel (2110-2) made from the flexible material, wherein at least part of the second panel is adjacent to the self-fold in the flexible material and about flat; and the self-fold, which has a differential thermal-mechanical set when compared with the flexible material outside of the self-fold; and wherein the self-fold forms an angle (α) of 100-170 degrees between the adjacent parts of the panels.
A dispenser for dispensing a roll of material, the dispenser comprising a housing comprising a rear housing and an openable cover defining a housing interior configured to receive a roll of material having a diameter, the rear housing having a backplate configured to be mounted to a mounting surface, wherein the housing interior is configured to receive and hold a roll of material in a first dispensing position and a second dispensing position; a roll transfer apparatus comprising a transfer arm configured to hold the roll of material in the first dispensing position, wherein the transfer arm includes a first end having a transfer arm roller configured to engage the roll of material and a second end engaged with a transfer disk , and a transfer latch having a first end configured to releasably engage the transfer disk, wherein upon the diameter of the roll of material reaching a transfer diameter size the second end of the transfer arm engages the transfer latch such that the first end of the transfer latch disengages from the transfer disk to facilitate movement of the roll of material from the first dispensing position to the second dispensing position. a housing comprising a rear housing and an openable cover defining a housing interior configured to receive a roll of material having a diameter, the rear housing having a backplate configured to be mounted to a mounting surface, wherein the housing interior is configured to receive and hold a roll of material in a first dispensing position and a second dispensing position; a roll transfer apparatus comprising a transfer arm configured to hold the roll of material in the first dispensing position, wherein the transfer arm includes a first end having a transfer arm roller configured to engage the roll of material and a second end engaged with a transfer disk , and a transfer latch having a first end configured to releasably engage the transfer disk, wherein upon the diameter of the roll of material reaching a transfer diameter size the second end of the transfer arm engages the transfer latch such that the first end of the transfer latch disengages from the transfer disk to facilitate movement of the roll of material from the first dispensing position to the second dispensing position.
Method for processing a mix of miscanthus fibers for the production of a bio-based composite , comprising the steps of: - harvesting miscanthus crops and processing the harvested miscanthus crops to obtain a raw mix of miscanthus fibers , - separating the raw mix of miscanthus fibers, such as by sieving and grinding, into a first fraction (f1) comprising a mix of miscanthus fibers having a fiber size of approximately < s1 and having first physical/chemical properties and a second fraction (f2) comprising a mix of miscanthus fibers having a fiber size of approximately > s1 and having second physical/chemical properties being different from the first physical/chemical properties, - mixing the miscanthus fibers of the first fraction (f1) or the miscanthus fibers of the second fraction (f2) with a binding agent , - letting the binding agent harden, to obtain the bio-based composite, wherein the binding agent is a mortar, at least 50wt% of the miscanthus fibers have a fiber size between 2 and 8 mm and the amount of miscanthus fibers range between 5 and 13 vol%, to obtain a concrete mixture, wherein the concrete mixture contains between 0.01 to 1 wt% of a superplasticizer, wherein s1 is determined by performing one or more iterative tests/experiments, in view of the desired physical/chemical properties of the fiber fractions f1, f2 in the bio-based composite and wherein fiber size is determined by sieving as described in the description. - harvesting miscanthus crops and processing the harvested miscanthus crops to obtain a raw mix of miscanthus fibers , - separating the raw mix of miscanthus fibers, such as by sieving and grinding, into a first fraction (f1) comprising a mix of miscanthus fibers having a fiber size of approximately < s1 and having first physical/chemical properties and a second fraction (f2) comprising a mix of miscanthus fibers having a fiber size of approximately > s1 and having second physical/chemical properties being different from the first physical/chemical properties, - mixing the miscanthus fibers of the first fraction (f1) or the miscanthus fibers of the second fraction (f2) with a binding agent , - letting the binding agent harden, to obtain the bio-based composite, wherein the binding agent is a mortar, at least 50wt% of the miscanthus fibers have a fiber size between 2 and 8 mm and the amount of miscanthus fibers range between 5 and 13 vol%, to obtain a concrete mixture, wherein the concrete mixture contains between 0.01 to 1 wt% of a superplasticizer, wherein s1 is determined by performing one or more iterative tests/experiments, in view of the desired physical/chemical properties of the fiber fractions f1, f2 in the bio-based composite and wherein fiber size is determined by sieving as described in the description. wherein the concrete mixture contains between 0.01 to 1 wt% of a superplasticizer, wherein s1 is determined by performing one or more iterative tests/experiments, in view of the desired physical/chemical properties of the fiber fractions f1, f2 in the bio-based composite and wherein fiber size is determined by sieving as described in the description.
An oxygen injection system for a direct reduction process, comprising: a common circumferential gas injection header adapted to be coupled to an oxygen source and an enrichment natural gas source and adapted to deliver oxygen from the oxygen source and enrichment natural gas from the enrichment natural gas source to a reducing gas stream flowing through a conduit axially disposed within the common circumferential gas injection header through a plurality of circumferentially disposed ports to form a bustle gas stream ; wherein the common circumferential gas injection header is formed by a circumferential oxygen injection header adapted to deliver the oxygen from the oxygen source to the reducing gas stream through the plurality of circumferentially disposed ports and a circumferential enrichment natural gas injection header adapted to deliver the enrichment natural gas from the enrichment natural gas source to the reducing gas stream through the plurality of circumferentially disposed ports , characterized in that the oxygen injection system further comprises another circumferential enrichment natural gas injection header disposed about the conduit downstream of the common circumferential gas injection header and adapted to deliver additional enrichment natural gas from the enrichment natural gas source to the reducing gas stream through an additional plurality of circumferentially disposed ports . a common circumferential gas injection header adapted to be coupled to an oxygen source and an enrichment natural gas source and adapted to deliver oxygen from the oxygen source and enrichment natural gas from the enrichment natural gas source to a reducing gas stream flowing through a conduit axially disposed within the common circumferential gas injection header through a plurality of circumferentially disposed ports to form a bustle gas stream ; wherein the common circumferential gas injection header is formed by a circumferential oxygen injection header adapted to deliver the oxygen from the oxygen source to the reducing gas stream through the plurality of circumferentially disposed ports and a circumferential enrichment natural gas injection header adapted to deliver the enrichment natural gas from the enrichment natural gas source to the reducing gas stream through the plurality of circumferentially disposed ports , characterized in that the oxygen injection system further comprises another circumferential enrichment natural gas injection header disposed about the conduit downstream of the common circumferential gas injection header and adapted to deliver additional enrichment natural gas from the enrichment natural gas source to the reducing gas stream through an additional plurality of circumferentially disposed ports .