mhurhangee/ep-ind-claims huggingface dataset:
A semiconductor structure comprising: a. A substrate comprising a III-V material, b. A high-k interfacial layer overlaying said substrate, c. A high-k dielectric layer overlying said interfacial layer, characterised in that said interfacial layer comprises a rare earth aluminate selected from Gd x Al y O 3 and Sc x Al y O 3, wherein x is from 0.4 to 1.6, preferably from 0.4 to 1.5, more preferably from 0.4 to 1.4, wherein x+y=2. a. A substrate comprising a III-V material, b. A high-k interfacial layer overlaying said substrate, c. A high-k dielectric layer overlying said interfacial layer,
Process for relaxing keratin fibres, comprising: (i) a step of applying to the keratin fibres a hair-relaxing composition containing at least one cyclic amide, the pH of this composition being less than or equal to 9, (ii) a step of raising the temperature of the keratin fibres, using a heating means, to a temperature of between 110 and 250°C, characterized in that the cyclic amides are chosen from: 2-pyrrolidone pyroglutamic acid 3-methyl-2-pyrrolidone 5-methyl-2-pyrrolidone 5-(hydroxymethyl)-2-pyrrolidinone 5-oxopyrrolidine-3-carboxylic acid 5-aminomethylpyrrolidin-2-one 4-hydroxy-2-pyrrolidinone and the stereoisomers, organic or mineral salts and solvates thereof, the composition containing the cyclic amide as the only hair-relaxing active ingredient and the amide being present in a molar concentration of between 2 and 8 M. (i) a step of applying to the keratin fibres a hair-relaxing composition containing at least one cyclic amide, the pH of this composition being less than or equal to 9, (ii) a step of raising the temperature of the keratin fibres, using a heating means, to a temperature of between 110 and 250°C, characterized in that the cyclic amides are chosen from: 2-pyrrolidone pyroglutamic acid 3-methyl-2-pyrrolidone 5-methyl-2-pyrrolidone 5-(hydroxymethyl)-2-pyrrolidinone 5-oxopyrrolidine-3-carboxylic acid 5-aminomethylpyrrolidin-2-one 4-hydroxy-2-pyrrolidinone and the stereoisomers, organic or mineral salts and solvates thereof, the composition containing the cyclic amide as the only hair-relaxing active ingredient and the amide being present in a molar concentration of between 2 and 8 M. 2-pyrrolidone pyroglutamic acid 3-methyl-2-pyrrolidone 5-methyl-2-pyrrolidone 5-(hydroxymethyl)-2-pyrrolidinone 5-oxopyrrolidine-3-carboxylic acid 5-aminomethylpyrrolidin-2-one 4-hydroxy-2-pyrrolidinone and the stereoisomers, organic or mineral salts and solvates thereof, the composition containing the cyclic amide as the only hair-relaxing active ingredient and the amide being present in a molar concentration of between 2 and 8 M.
A modified natural rubber containing compared to natural rubber a reduced content of phosphorus compounds and thus a reduced amount of phospholipids such that the modified natural rubber contains 200 ppm or less of phosphorus, wherein the phosphorus content is measured by ICP emission spectrometry.
A power filter comprising: a first input configured to receive measurements of electrical characteristics of source power lines from a power source, wherein the source power lines include a first phase line, a second phase line, a third phase line and a neutral; a second input configured to receive measurements of electrical characteristics of load power lines to a load, wherein the load power lines include a first phase line, a second phase line, a third phase line and a neutral; an output configured to couple to output power lines to provide output current compensation signals through the output power lines to the nodes where the respective lines of the source power lines and the load power lines are configured to be connected to each other, wherein the output power lines include a first phase line, a second phase line, a third phase line and a neutral; a power converter coupled to the output and configured to receive input power, receive control signals and provide the output current compensation signals based on the control signals; and a controller coupled to the first input, the second input and the power converter and configured to provide the control signals to the power converter, characterized in that the controller has an input to receive an indication of a neutral current limit, and the controller is configured to adjust the control signals based on the indication of the neutral current limit to limit current on the neutral of the output power line. a first input configured to receive measurements of electrical characteristics of source power lines from a power source, wherein the source power lines include a first phase line, a second phase line, a third phase line and a neutral; a second input configured to receive measurements of electrical characteristics of load power lines to a load, wherein the load power lines include a first phase line, a second phase line, a third phase line and a neutral; an output configured to couple to output power lines to provide output current compensation signals through the output power lines to the nodes where the respective lines of the source power lines and the load power lines are configured to be connected to each other, wherein the output power lines include a first phase line, a second phase line, a third phase line and a neutral; a power converter coupled to the output and configured to receive input power, receive control signals and provide the output current compensation signals based on the control signals; and a controller coupled to the first input, the second input and the power converter and configured to provide the control signals to the power converter,
A system for reducing pattern-dependent inter-symbol interference, the system comprising: a chip comprising: a source including a multiplexer; a destination comprising an digital-to-analog converter; and a circuit disposed along a data path from the multiplexer to the DAC, the circuit being configured to: receive a supply voltage; receive an input signal from the multiplexer, and produce an output signal based on the input signal, wherein producing the output signal comprises clamping the output signal to a voltage that is a fraction of the supply voltage, wherein the circuit comprises a feedback equalizer, and wherein the feedback equalizer comprises first and second open-loop buffers and first and second inverting feedback buffers, the first inverting feedback buffer being coupled between an input of the first open-loop buffer and an output of the second open-loop buffer, and the second inverting feedback buffer being coupled between an input of the second open-loop buffer, and an output of the first open-loop buffer. a chip comprising: a source including a multiplexer; a destination comprising an digital-to-analog converter; and a circuit disposed along a data path from the multiplexer to the DAC, the circuit being configured to: receive a supply voltage; receive an input signal from the multiplexer, and produce an output signal based on the input signal, wherein producing the output signal comprises clamping the output signal to a voltage that is a fraction of the supply voltage, a source including a multiplexer; a destination comprising an digital-to-analog converter; and a circuit disposed along a data path from the multiplexer to the DAC, the circuit being configured to: receive a supply voltage; receive an input signal from the multiplexer, and produce an output signal based on the input signal, wherein producing the output signal comprises clamping the output signal to a voltage that is a fraction of the supply voltage, receive a supply voltage; receive an input signal from the multiplexer, and produce an output signal based on the input signal, wherein producing the output signal comprises clamping the output signal to a voltage that is a fraction of the supply voltage, wherein the circuit comprises a feedback equalizer, and wherein the feedback equalizer comprises first and second open-loop buffers and first and second inverting feedback buffers, the first inverting feedback buffer being coupled between an input of the first open-loop buffer and an output of the second open-loop buffer, and the second inverting feedback buffer being coupled between an input of the second open-loop buffer, and an output of the first open-loop buffer.
Method for monitoring a control device of a vehicle, wherein the control device comprises an Ethernet transceiver (16, characterized in that the Ethernet transceiver comprises a link LED output, which is designed to display the network status by means of an LED connectable thereto, the method comprising: - determining a settable diagnosis state of the control device; - selecting a signal sequence on the basis of the diagnosis state; - controlling the link LED output with the signal sequence to output the diagnosis state. - determining a settable diagnosis state of the control device; - selecting a signal sequence on the basis of the diagnosis state; - controlling the link LED output with the signal sequence to output the diagnosis state.
A method of producing coatings on a substrate using a liquid suspension with sub-micrometer particles dispersed therein, the method comprising the steps of: generating a plasma from a thermal spray torch; delivering a flow of liquid suspension with sub-micrometer particles dispersed therein to the plasma or in close proximity thereto to produce a plasma effluent stream; surrounding the plasma effluent with a reactive gas shroud to keep the sub-micrometer particles entrained within the plasma effluent and prevent entrainment of ambient gases into the plasma effluent; reacting the shroud gas with the plasma effluent to enhance fragmentation of the suspension droplets and create evaporative species of the sub-micrometer particles within the plasma effluent; and directing the shrouded plasma effluent with the sub-micrometer particles contained therein towards the substrate to coat the substrate. generating a plasma from a thermal spray torch; delivering a flow of liquid suspension with sub-micrometer particles dispersed therein to the plasma or in close proximity thereto to produce a plasma effluent stream; surrounding the plasma effluent with a reactive gas shroud to keep the sub-micrometer particles entrained within the plasma effluent and prevent entrainment of ambient gases into the plasma effluent; reacting the shroud gas with the plasma effluent to enhance fragmentation of the suspension droplets and create evaporative species of the sub-micrometer particles within the plasma effluent; and directing the shrouded plasma effluent with the sub-micrometer particles contained therein towards the substrate to coat the substrate.
Master brake cylinder assembly for a hydraulic motor vehicle brake system, comprising: - a master brake cylinder housing with a cylindrical recess and at least one substantially annular groove (16, 22), which is oriented across a longitudinal axis of the cylindrical recess, wherein the groove (16, 22) is axially delimited by a protruding housing portion (17, 23), and - at least one pressure piston (32, 36), which can be displaced axially in the cylindrical recess of the master brake cylinder housing and is guided in a sealed manner by means of at least one seal element (42, 46), wherein the seal element (42, 46) is arranged in the groove (16, 22), wherein the housing portion has an edge portion facing the seal element and an edge portion facing away from the seal element when viewed in an axis-containing longitudinal section, characterised in that the edge portion facing the seal element and the edge portion facing away from the seal element have a curved contour when viewed in the axis-containing longitudinal section, wherein the edge portion facing the seal element and the edge portion facing away from the seal element have differently strong curvatures. - a master brake cylinder housing with a cylindrical recess and at least one substantially annular groove (16, 22), which is oriented across a longitudinal axis of the cylindrical recess, wherein the groove (16, 22) is axially delimited by a protruding housing portion (17, 23), and - at least one pressure piston (32, 36), which can be displaced axially in the cylindrical recess of the master brake cylinder housing and is guided in a sealed manner by means of at least one seal element (42, 46), wherein the seal element (42, 46) is arranged in the groove (16, 22),
A method of manufacturing a textured surface, comprising: disposing a nanoparticle-based ink onto a substrate; imprinting the ink with a mold comprising a plurality of features to form a textured nanoparticle-based ink; and performing at least one cycle of atomic layer deposition, ALD, on the textured nanoparticle-based ink to fill pores in the textured nanoparticle-based ink and to form the textured surface, wherein the ALD comprises sequentially depositing a first reactant comprising MX y, MR y, M y, M y, M y, MX y R z, MX y z, MX y z, MX y z, MCp 2, or combinations thereof, and a second reactant comprising water, oxygen, or ozone, wherein each y and z is independently an integer from 2 to 8; M is a metal; each X is independently F, Cl, Br, or I; each R is independently hydrogen or a substituted or unsubstituted C 1-20 alkyl; and Cp is a substituted or unsubstituted cyclopentadienyl; and following the at least one cycle of ALD, treating the nanoparticle-based ink by exposing to electromagnetic radiation or by heating. disposing a nanoparticle-based ink onto a substrate; imprinting the ink with a mold comprising a plurality of features to form a textured nanoparticle-based ink; and performing at least one cycle of atomic layer deposition, ALD, on the textured nanoparticle-based ink to fill pores in the textured nanoparticle-based ink and to form the textured surface, wherein the ALD comprises sequentially depositing a first reactant comprising MX y, MR y, M y, M y, M y, MX y R z, MX y z, MX y z, MX y z, MCp 2, or combinations thereof, and a second reactant comprising water, oxygen, or ozone, wherein each y and z is independently an integer from 2 to 8; M is a metal; each X is independently F, Cl, Br, or I; each R is independently hydrogen or a substituted or unsubstituted C 1-20 alkyl; and Cp is a substituted or unsubstituted cyclopentadienyl; and each y and z is independently an integer from 2 to 8; M is a metal; each X is independently F, Cl, Br, or I; each R is independently hydrogen or a substituted or unsubstituted C 1-20 alkyl; and Cp is a substituted or unsubstituted cyclopentadienyl; and following the at least one cycle of ALD, treating the nanoparticle-based ink by exposing to electromagnetic radiation or by heating.
Polytetrafluoroethylene-based (PTFE) material, of relative density greater than 1.45, prepared from a mixture comprising: - PTFE, - 5 to 15 % by weight of a metal oxide, - 15 to 30 % by weight of a lubricant, - 0.1 to 1 % by weight of a surfactant, the percentages by weight being given with respect to the total weight of PTFE. - PTFE, - 5 to 15 % by weight of a metal oxide, - 15 to 30 % by weight of a lubricant, - 0.1 to 1 % by weight of a surfactant,
A medical device for inducing cell death in cancer cells, the medical device comprising: a signal generator arranged to generate a pulsed electrical signal, and a probe (108, 208, 308, 408, 508) comprising a transmitter (116, 216, 316, 416, 516, 716) at a tip of the probe, wherein the transmitter (116, 216, 316, 416, 516, 716) is arranged to receive the pulsed electrical signal and generate, in response to the pulsed electrical signal, an electromagnetic field in a treatment volume; wherein the medical device is arranged such that the pulsed electrical signal received by the transmitter has: - a pulse width of 0.1 microsecond to 1 millisecond, and - a signal frequency of 100 Megahertz to 20 Gigahertz; and wherein the transmitter is a broadband transmitter configured to generate the electromagnetic field in response to the pulsed electrical signal over a range of signal frequencies from 100 MHz to 20 GHz. a signal generator arranged to generate a pulsed electrical signal, and a probe (108, 208, 308, 408, 508) comprising a transmitter (116, 216, 316, 416, 516, 716) at a tip of the probe, wherein the transmitter (116, 216, 316, 416, 516, 716) is arranged to receive the pulsed electrical signal and generate, in response to the pulsed electrical signal, an electromagnetic field in a treatment volume; wherein the medical device is arranged such that the pulsed electrical signal received by the transmitter has: - a pulse width of 0.1 microsecond to 1 millisecond, and - a signal frequency of 100 Megahertz to 20 Gigahertz; and - a pulse width of 0.1 microsecond to 1 millisecond, and - a signal frequency of 100 Megahertz to 20 Gigahertz; and wherein the transmitter is a broadband transmitter configured to generate the electromagnetic field in response to the pulsed electrical signal over a range of signal frequencies from 100 MHz to 20 GHz.
Control device comprising: - at least one main line of hydraulic circuit and at least one discharge line that branches out from said main line, said main line having an inlet end arranged for connecting with a hydraulic delivery and an actuator end arranged for connecting with a hydraulic actuator to command lifting of a movable element of the actuator, said discharge line being arranged for connecting to a discharge to enable the movable element to descend; - a proportional flow control valve arranged on said discharge line for controlling a flow of operating fluid; - at least one pressure compensator element; - at least one check valve to permit a flow to the discharge, said check valve being arranged between said actuator end and said discharge at a hydraulic circuit point along which the fluid flows during a descend of the movable element of the actuator, said at least one check valve being arranged on said discharge line; - piloting means for piloting said check valve to open on the basis of a piloting pressure substantially present in said main line; characterized in that: - said pressure compensator element is arranged on said discharge line for enabling a flow from said main line to the discharge to be controlled; - said check valve is piloted to close at least by elastic means; - said check valve is arranged between said proportional valve and the discharge and/or between said pressure compensator element and the discharge. - at least one main line of hydraulic circuit and at least one discharge line that branches out from said main line, said main line having an inlet end arranged for connecting with a hydraulic delivery and an actuator end arranged for connecting with a hydraulic actuator to command lifting of a movable element of the actuator, said discharge line being arranged for connecting to a discharge to enable the movable element to descend; - a proportional flow control valve arranged on said discharge line for controlling a flow of operating fluid; - at least one pressure compensator element; - at least one check valve to permit a flow to the discharge, said check valve being arranged between said actuator end and said discharge at a hydraulic circuit point along which the fluid flows during a descend of the movable element of the actuator, said at least one check valve being arranged on said discharge line; - piloting means for piloting said check valve to open on the basis of a piloting pressure substantially present in said main line; - said pressure compensator element is arranged on said discharge line for enabling a flow from said main line to the discharge to be controlled; - said check valve is piloted to close at least by elastic means; - said check valve is arranged between said proportional valve and the discharge and/or between said pressure compensator element and the discharge.
An organic transistor, comprising: a gate electrode; a gate insulting film; a source electrode; a drain electrode; and an organic semiconductor layer formed of an organic semiconductor material; wherein the gate electrode, the gate insulting film, the source electrode, the drain electrode, and the organic semiconductor layer are formed on a substrate, and characterized in that at least one of the source electrode and the drain electrode has an opening (16a, 16b), wherein the boundaries of the opening (16a, 16b) are completely defined within and by a single electrode (13, 14), and the opening (16a, 16b) is completely available to enclose the organic semiconductor layer. a gate electrode; a gate insulting film; a source electrode; a drain electrode; and an organic semiconductor layer formed of an organic semiconductor material; wherein the gate electrode, the gate insulting film, the source electrode, the drain electrode, and the organic semiconductor layer are formed on a substrate, and characterized in that at least one of the source electrode and the drain electrode has an opening (16a, 16b), wherein the boundaries of the opening (16a, 16b) are completely defined within and by a single electrode (13, 14), and the opening (16a, 16b) is completely available to enclose the organic semiconductor layer.
A method for reducing the risk of a forward collision between a vehicle and a foreign object in a forward collision risk reduction system, said method comprising the steps of: - establishing the presence of said foreign object in front of said vehicle; - initiating a collision risk reduction task resulting in a speed reduction of said vehicle, and - terminating said collision risk reduction task when said speed reduction exceeds a predetermined threshold value (Δv). - establishing the presence of said foreign object in front of said vehicle; - initiating a collision risk reduction task resulting in a speed reduction of said vehicle, and - terminating said collision risk reduction task when said speed reduction exceeds a predetermined threshold value (Δv).
Goods wagon for transporting on rails at least one independent transport vehicle, in particular a lorry having a semitrailer or similar load transporter, the goods wagon comprising a bridge part as a drivable usable surface which extends between a front bogie and a rear bogie and is movably retained, such that, in this region, the at least one load transporter to be transferred from road traffic into rail traffic can be moved upwards and downwards, the bridge part being designed as a base frame provided with a central functional portion and cooperating with a support structure, as a multi-part assembly, forming a movable usable surface, such that the at least one transport vehicle which can be positioned on the support structure can be adapted, by means of said structure which can be moved at least in regions into a lowered use position in the functional portion, to respective dimensions (HG, BG) of the usable transport space that are defined for rail transport, and the support structure that can be lowered into and lifted out of the functional portion of the base frame being movable in a continuous manner or in stages by means of an actuator and pivotable about a central vertical axis at least in regions, the actuator which cooperates with the support structure being formed by at least one lift-pivot system which can be integrated into the multi-part assembly, and the lift-pivot system being supported in the region of the base frame, characterised in that the base frame, in the region of the functional portion, has a counter retaining strut which engages the support structure from below at least in regions, is arranged as a centre console, extends in the direction of the central longitudinal plane, is integrated into a supported profile of the support structure and is lifted and pivoted as a bracing structure together with the support structure by means of the lift-pivot system.