mhurhangee/ep-ind-claims huggingface dataset:
Urethane-based adhesive being a two-liquid type adhesive composition which comprises: a main agent comprising a urethane prepolymer having an isocyanate group at the end thereof; an alkoxysilyl group-containing polyfunctional isocyanate compound which is obtained through a reaction of a silane compound having two or more alkoxysilyl groups in one molecule and a polyisocyanate having an isocyanate group at the end thereof by bonding at least one isocyanate group of a plurality of isocyanate groups which the polyisocyanate has and a functional group of the silane compound; and a first curing catalyst; and a curing product comprising a polyol, and a second curing catalyst, wherein the polyol is a hydrophobic polyol which is selected from a group consisted of a hydrogenated polyisoprene polyol, a rosin-modified polyol, and a polybutadiene polyol. a main agent comprising a urethane prepolymer having an isocyanate group at the end thereof; an alkoxysilyl group-containing polyfunctional isocyanate compound which is obtained through a reaction of a silane compound having two or more alkoxysilyl groups in one molecule and a polyisocyanate having an isocyanate group at the end thereof by bonding at least one isocyanate group of a plurality of isocyanate groups which the polyisocyanate has and a functional group of the silane compound; and a first curing catalyst; and a urethane prepolymer having an isocyanate group at the end thereof; an alkoxysilyl group-containing polyfunctional isocyanate compound which is obtained through a reaction of a silane compound having two or more alkoxysilyl groups in one molecule and a polyisocyanate having an isocyanate group at the end thereof by bonding at least one isocyanate group of a plurality of isocyanate groups which the polyisocyanate has and a functional group of the silane compound; and a first curing catalyst; and a curing product comprising a polyol, and a second curing catalyst, wherein the polyol is a hydrophobic polyol which is selected from a group consisted of a hydrogenated polyisoprene polyol, a rosin-modified polyol, and a polybutadiene polyol. a polyol, and a second curing catalyst,
High-pressure fuel supply device for a motor vehicle combustion engine, covered by a protective cover which is formed by vertical walls surmounted by a flat wall, and comprising an injection rail connected by pipes to at least one injector mounted in a cylinder head of said engine and a fuel return system comprising a duct, characterized in that the fuel return duct is fixed parallel to the flat wall of the protective cover and comprises a connection to a fuel return end piece of the at least one injector, said connection extending transversely to the axis of the duct towards the cylinder head.
An OCT imaging system, comprising: an optical sub-system (100, 1400) adapted for capturing OCT scan data of a subject, wherein the OCT scan data comprises a plurality of scan captures respectively associated with a plurality of focal plane positions (202, 206); and an image processor (404; 600; 900) adapted for converting the OCT scan data to a plurality of OCT images, for co-registering, by a registration module, the OCT images, for performing a windowed average over the plurality of OCT images based on the plurality of focal plane positions, and for outputting a composite image based on the windowed average, wherein, to generate the windowed average, the OCT imaging system comprises a control apparatus, which includes the image processor (404; 600; 900), said control apparatus being adapted to weight respective pixel intensities of respective OCT images, of the plurality of OCT images, based on windows corresponding to the respective focal plane positions (202, 206) associated with the respective OCT images, wherein said control apparatus is adapted to apply, for each window, weightings to intensity values within the window, on a row-by-row basis with a row corresponding to a specific depth within a depth of focus profile, characterised in that for at least one row contained within multiple windows, the respective weighted intensity values from the respective windows are summed by the control apparatus; and in that said pixel intensities are weighted based at least in part on a distance from the focal plane position (202, 206) by said control apparatus. an optical sub-system (100, 1400) adapted for capturing OCT scan data of a subject, wherein the OCT scan data comprises a plurality of scan captures respectively associated with a plurality of focal plane positions (202, 206); and an image processor (404; 600; 900) adapted for converting the OCT scan data to a plurality of OCT images, for co-registering, by a registration module, the OCT images, for performing a windowed average over the plurality of OCT images based on the plurality of focal plane positions, and for outputting a composite image based on the windowed average, wherein, to generate the windowed average, the OCT imaging system comprises a control apparatus, which includes the image processor (404; 600; 900), said control apparatus being adapted to weight respective pixel intensities of respective OCT images, of the plurality of OCT images, based on windows corresponding to the respective focal plane positions (202, 206) associated with the respective OCT images, wherein said control apparatus is adapted to apply, for each window, weightings to intensity values within the window, on a row-by-row basis with a row corresponding to a specific depth within a depth of focus profile, characterised in that for at least one row contained within multiple windows, the respective weighted intensity values from the respective windows are summed by the control apparatus; and in that said pixel intensities are weighted based at least in part on a distance from the focal plane position (202, 206) by said control apparatus.
An ultrasonic vibration unit which has a converter for converting an electric ac voltage into a mechanical ultrasonic vibration and a sonotrode which is vibrationally coupled to the converter, wherein the sonotrode and the converter are matched to each other in such a way that the ultrasonic vibration unit can vibrate with a natural frequency f, in which a standing longitudinal wave with at least one vibration node and at least two vibration anti-nodes is formed within the ultrasonic vibration unit, characterised in that there is provided a damped vibration absorber unit connected to the ultrasonic vibration unit by way of a coupling element, wherein the coupling element is connected at a vibration node to the ultrasonic vibration unit, wherein the vibration absorber unit is connected to a damping element which is so designed that it damps a vibration of the vibration absorber unit.
A method of beneficiating a mineral ore, comprising: forming a slurry comprising mineral ore particles; and intermixing the slurry with an effective amount of a collector composition comprising a dithiocarbamate of Formula: wherein each of R and R 1 is independently chosen from C 1-20 alkyl, C 6-20 aryl, C 2-20 alkenyl, or C 7-20 aralkyl, to form a froth comprising a plurality of beneficiated minerals. forming a slurry comprising mineral ore particles; and intermixing the slurry with an effective amount of a collector composition comprising a dithiocarbamate of Formula: wherein each of R and R 1 is independently chosen from C 1-20 alkyl, C 6-20 aryl, C 2-20 alkenyl, or C 7-20 aralkyl, to form a froth comprising a plurality of beneficiated minerals.
A method of making a piece of metal reinforcement for mounting on the leading or trailing edge of a composite turbomachine blade, the method comprising the steps consisting in: • shaping two metal sheets so as to approximate the final shape of the piece of reinforcement that is to be made; • positioning the two sheets on either side of a core reproducing the inside shapes of the suction side and of the pressure side of the piece of reinforcement; assembling the two sheets together around the core under a vacuum and in leaktight manner; • shaping the sheets on the core by hot isostatic compression; and • cutting the sheets to separate the piece of reinforcement along at least one line of cut, and to release the core; the method being characterized in that it consists in forming projecting sacrificial zones (13, 17) on the core, the sheets being shaped to match the sacrificial zones (13, 17) during the hot isostatic compression, and the sheets being cut along the sacrificial zones (13, 17) without degrading the remainder of the core. • shaping two metal sheets so as to approximate the final shape of the piece of reinforcement that is to be made; • positioning the two sheets on either side of a core reproducing the inside shapes of the suction side and of the pressure side of the piece of reinforcement; assembling the two sheets together around the core under a vacuum and in leaktight manner; • shaping the sheets on the core by hot isostatic compression; and • cutting the sheets to separate the piece of reinforcement along at least one line of cut, and to release the core;
A method of making fin transistors, comprising: forming a precursor fin on a substrate; forming a liner film on the substrate; at least partially filling a void adjacent the precursor fin with an inter-gate dielectric; removing at least a portion of the liner film; removing a portion of the inter-gate dielectric exposed by removing the portion of the liner film; and forming an insulating fin and a semiconductor fin by a single etch that defines a furrow in the substrate, wherein: the furrow is disposed between a semiconductor fin formed from the substrate and an insulating fin formed from the inter-gate dielectric, the semiconductor fin comprises a source and a drain and is physically separated from the insulating fin, and the insulating fin having a first height at least equal to a second height of transistors disposed in rows is disposed in a gap defined between the semiconductor fin forming a first row of transistors and a second semiconductor fin forming a second row of transistors. forming a precursor fin on a substrate; forming a liner film on the substrate; at least partially filling a void adjacent the precursor fin with an inter-gate dielectric; removing at least a portion of the liner film; removing a portion of the inter-gate dielectric exposed by removing the portion of the liner film; and forming an insulating fin and a semiconductor fin by a single etch that defines a furrow in the substrate, wherein: the furrow is disposed between a semiconductor fin formed from the substrate and an insulating fin formed from the inter-gate dielectric, the semiconductor fin comprises a source and a drain and is physically separated from the insulating fin, and the insulating fin having a first height at least equal to a second height of transistors disposed in rows is disposed in a gap defined between the semiconductor fin forming a first row of transistors and a second semiconductor fin forming a second row of transistors. the furrow is disposed between a semiconductor fin formed from the substrate and an insulating fin formed from the inter-gate dielectric, the semiconductor fin comprises a source and a drain and is physically separated from the insulating fin, and the insulating fin having a first height at least equal to a second height of transistors disposed in rows is disposed in a gap defined between the semiconductor fin forming a first row of transistors and a second semiconductor fin forming a second row of transistors.
A pH meter device, comprising: a probe assembly having a first end, a second end and a central axis; a reference electrode having a frit disposed at the first end of the probe assembly; a working electrode comprising an analyte sensitive material coupled to a substrate, the analyte sensitive material and the substrate being disposed at the first end of the probe assembly; a counter electrode disposed at the first end of the probe assembly; an enclosure disposed at the second end of the probe assembly; a pre-amplification circuit disposed within the enclosure and electrically coupled to at least one of the reference electrode, the working electrode and the counter electrode; and a processor electrically coupled to the pre-amplification circuit for detecting an analyte by voltammetry, wherein the reference electrode, the working electrode and the counter electrode are coaxially positioned relative to the central axis, and wherein the pre-amplification circuit scales a signal received from at least one of the reference electrode and the working electrode; wherein the reference electrode comprises a cartridge assembly coaxially disposed within a portion of the counter electrode, the reference electrode further comprising an electrode wire having a first end and a second end, the first end being electrically coupled to the pre-amplification circuit, and the second end being exposed to an electrolyte solution. a probe assembly having a first end, a second end and a central axis; a reference electrode having a frit disposed at the first end of the probe assembly; a working electrode comprising an analyte sensitive material coupled to a substrate, the analyte sensitive material and the substrate being disposed at the first end of the probe assembly; a counter electrode disposed at the first end of the probe assembly; an enclosure disposed at the second end of the probe assembly; a pre-amplification circuit disposed within the enclosure and electrically coupled to at least one of the reference electrode, the working electrode and the counter electrode; and a processor electrically coupled to the pre-amplification circuit for detecting an analyte by voltammetry, wherein the reference electrode, the working electrode and the counter electrode are coaxially positioned relative to the central axis, and wherein the pre-amplification circuit scales a signal received from at least one of the reference electrode and the working electrode; wherein the reference electrode comprises a cartridge assembly coaxially disposed within a portion of the counter electrode, the reference electrode further comprising an electrode wire having a first end and a second end, the first end being electrically coupled to the pre-amplification circuit, and the second end being exposed to an electrolyte solution.
A transparent multi-layer laminate comprising: a glass-ceramic layer, a soda-lime or borosilicate glass layer, a glass-ceramic layer, and a polymer spall layer, wherein said soda-lime or borosilicate glass layer is disposed between said glass-ceramic layers and the layers are bound together by polymer interlayers and the overall thickness of the composite is less than 80 mm. a glass-ceramic layer, a soda-lime or borosilicate glass layer, a glass-ceramic layer, and a polymer spall layer, wherein said soda-lime or borosilicate glass layer is disposed between said glass-ceramic layers and the layers are bound together by polymer interlayers and the overall thickness of the composite is less than 80 mm.
A method for preparing a LiCoO 2 -containing powder, comprising a step of providing a homogeneous mixture of LiCoO 2 and a lithium buffer material in which the lithium buffer material is a material of Formula Li z MO 2 wherein 0.95 < z < 1.1; M = Ni 1-x-y Mn x Co y, 0 < y < 0.5, and a ratio of Mn to Ni (x/(1-x-y)) is in the range of 0.4 to 1.1; and a step of heating the mixture to achieve equilibration of a lithium chemical potential, wherein the heat treatment temperature is in the range of 400 to 1100°C.
A network or server cabinet, comprising: a cabinet frame including a first pair of front-to-back beams connected to a pair of top side-to-side beams to form a top frame, a second pair of front-to-back beams connected to a pair of bottom side-to-side beams to form a bottom frame, and a plurality of vertical posts connected to the top frame and the bottom frame; a front equipment rail and a rear equipment rail that are removably connected to one of the first pair of front-to-back beams and to one of the second pair of front-to-back beams and that include mounting openings for mounting electronic equipment; characterized by: a channel member; and a vertical cable management rail, the front equipment rail connected to the channel member, and the vertical cable management rail connected to the channel member, to form a reinforced front equipment rail assembly. a cabinet frame including a first pair of front-to-back beams connected to a pair of top side-to-side beams to form a top frame, a second pair of front-to-back beams connected to a pair of bottom side-to-side beams to form a bottom frame, and a plurality of vertical posts connected to the top frame and the bottom frame; a front equipment rail and a rear equipment rail that are removably connected to one of the first pair of front-to-back beams and to one of the second pair of front-to-back beams and that include mounting openings for mounting electronic equipment; characterized by: a channel member; and a vertical cable management rail, the front equipment rail connected to the channel member, and the vertical cable management rail connected to the channel member, to form a reinforced front equipment rail assembly. a channel member; and a vertical cable management rail, the front equipment rail connected to the channel member, and the vertical cable management rail connected to the channel member, to form a reinforced front equipment rail assembly.
Process for the decomposition of polyurethane, wherein a polyurethane containing material is heated at excess pressure to a temperature of 190°C to 250°C in the presence of an aqueous solution containing 1 to 45 mass percent urea.
A display device comprising: a substrate comprising an opening; a first barrier insulating layer on the substrate; a plurality of first pad portions on the first barrier insulating layer and in a first contact hole penetrating the first barrier insulating layer; a second barrier insulating layer on the first barrier insulating layer and the plurality of first pad portions; a plurality of second pad portions on the second barrier insulating layer and in a second contact hole penetrating the first barrier insulating layer and the second barrier insulating layer; a third barrier insulating layer on the second barrier insulating layer and the plurality of second pad portions; a display layer on the third barrier insulating layer; and a flexible film (FPCB) under the substrate, and inserted into the opening to be electrically connected to the plurality of first and second pad portions (PAD1, PAD2), wherein each of the plurality of first pad portions and the plurality of second pad portions comprises a main body portion inserted into the first contact hole or the second contact hole, and an extension portion at both sides of the main body portion. a substrate comprising an opening; a first barrier insulating layer on the substrate; a plurality of first pad portions on the first barrier insulating layer and in a first contact hole penetrating the first barrier insulating layer; a second barrier insulating layer on the first barrier insulating layer and the plurality of first pad portions; a plurality of second pad portions on the second barrier insulating layer and in a second contact hole penetrating the first barrier insulating layer and the second barrier insulating layer; a third barrier insulating layer on the second barrier insulating layer and the plurality of second pad portions; a display layer on the third barrier insulating layer; and a flexible film (FPCB) under the substrate, and inserted into the opening to be electrically connected to the plurality of first and second pad portions (PAD1, PAD2), wherein each of the plurality of first pad portions and the plurality of second pad portions comprises a main body portion inserted into the first contact hole or the second contact hole, and an extension portion at both sides of the main body portion.
A system, comprising: a chassis configured to be worn by an individual comprising an outer cover having an interior surface and an exterior surface and an absorbent structure positioned adjacent the interior surface of the outer cover; a pair of conductive elements contained in the chassis and forming part of a sensing circuit that is configured to sense physiological changes of a wearer; and at least one electrical device associated with said pair of conductive elements, said at least one electrical device configured to indicate sensed physiological changes of a wearer comprising at least one of increases in void volume over time and increases in time between voids, wherein said electrical device further comprises a memory configured to store data representing said sensed physiological changes; and further comprising at least one second electrical device, said at least one second electrical device configured to provide indicia representative of data transferred from said memory of said electrical device wherein said at least one second electrical device is configured to receive data from the memory of said electrical device by one of wireless connection, Bluetooth connection, WiFi connection, or optical connection, and characterised in that the device also senses proximity of a wearer to one of a predetermined item and a predetermined location. a chassis configured to be worn by an individual comprising an outer cover having an interior surface and an exterior surface and an absorbent structure positioned adjacent the interior surface of the outer cover; a pair of conductive elements contained in the chassis and forming part of a sensing circuit that is configured to sense physiological changes of a wearer; and at least one electrical device associated with said pair of conductive elements, said at least one electrical device configured to indicate sensed physiological changes of a wearer comprising at least one of increases in void volume over time and increases in time between voids, wherein said electrical device further comprises a memory configured to store data representing said sensed physiological changes; and further comprising
Method for reducing noise in an input signal, comprising: determining a signal component for reducing noise in an input signal, which comprises a noise component, the determining comprising the steps of: estimating the noise component in the input signal, wherein the input signal is in the form of at least one frequency subband signal; estimating a reverberation component in the noise component, the estimating comprising: simulating a power impulse response in each subband by means of an adaptive filter; and removing the estimated reverberation component from the estimated noise component to obtain a modified estimate of the noise component, the method further comprising: filtering the input signal based on the modified estimate of the noise component. estimating the noise component in the input signal, wherein the input signal is in the form of at least one frequency subband signal; estimating a reverberation component in the noise component, the estimating comprising: simulating a power impulse response in each subband by means of an adaptive filter; and removing the estimated reverberation component from the estimated noise component to obtain a modified estimate of the noise component, the method further comprising: filtering the input signal based on the modified estimate of the noise component.
A semiconductor device, comprising: a S4 (1-x) In x C heterojunction formed on a SiC substrate, wherein x is 0.001 to 0.1, and wherein the heterojunction comprises a Si (1-x) In x C channel layer, a SiC barrier layer on top of the channel layer and an n+ SiC layer on top of the barrier layer, or a SiC channel layer, a Si (1-x) In x C barrier layer on top of the channel layer, and an n+ (Si (1-x) Ge x)C layer on top of the barrier layer. a S4 (1-x) In x C heterojunction formed on a SiC substrate, wherein x is 0.001 to 0.1, and wherein the heterojunction comprises a Si (1-x) In x C channel layer, a SiC barrier layer on top of the channel layer and an n+ SiC layer on top of the barrier layer, or a SiC channel layer, a Si (1-x) In x C barrier layer on top of the channel layer, and an n+ (Si (1-x) Ge x)C layer on top of the barrier layer.