mhurhangee/ep-ind-claims huggingface dataset:
An ETHERNET physical layer device comprising: a physical medium dependent sublayer to couple the physical layer device to a jack; a physical medium attachment sublayer; and a physical coding sublayer; medium independent interface functionality to couple the physical layer device to a media access control device over a medium independent interface; management functionality to couple the physical layer device to the media access control device over a management data input/output, MDIO, interface; a plurality of registers, wherein the management functionality is configured to output information stored in the plurality of registers to the media access control device via the management data input/output, MDIO, interface; and physical layer information functionality configured to read media information stored in a storage device that is part of a plug connected to an end of a cable when the plug is inserted into the jack, and to store the media information in at least one of the plurality of registers. a physical medium dependent sublayer to couple the physical layer device to a jack; a physical medium attachment sublayer; and a physical coding sublayer; medium independent interface functionality to couple the physical layer device to a media access control device over a medium independent interface; management functionality to couple the physical layer device to the media access control device over a management data input/output, MDIO, interface; a plurality of registers, wherein the management functionality is configured to output information stored in the plurality of registers to the media access control device via the management data input/output, MDIO, interface; and physical layer information functionality configured to read media information stored in a storage device that is part of a plug connected to an end of a cable when the plug is inserted into the jack, and to store the media information in at least one of the plurality of registers.
A method of initially tracking use history of a tool assembly comprising the steps of providing the tool assembly and a tracking assembly (10,30,50,70,70',70",90,110) for tracking a hit/stroke count for the tool assembly when installed in an industrial machine, the tool assembly comprising a tool, the tracking assembly operably coupled to the tool assembly and comprising a counter; applying a force relative to the tool assembly resulting in the tool being used for a machining operation, the force providing a corresponding force on the tracking (10,30,50,70,70',70",90,110) wherein said corresponding force on the tracking assembly results in the counter to increase by single iteration; wherein the counter is electrical in form, and wherein the tracking assembly comprises a sensor (40,60,72,72',72",92,116), the corresponding force on the tracking assembly resulting in a triggering of an output from the sensor; and characterized in that the sensor is an accelerometer,,the corresponding force on the tracking assembly (10,30,50,70,70',70",90,110) resulting in a variance in the output from the accelerometer, the variance in output received by the counter. providing the tool assembly and a tracking assembly (10,30,50,70,70',70",90,110) for tracking a hit/stroke count for the tool assembly when installed in an industrial machine, the tool assembly comprising a tool, the tracking assembly operably coupled to the tool assembly and comprising a counter; applying a force relative to the tool assembly resulting in the tool being used for a machining operation, the force providing a corresponding force on the tracking (10,30,50,70,70',70",90,110) wherein said corresponding force on the tracking assembly results in the counter to increase by single iteration; wherein the counter is electrical in form, and wherein the tracking assembly comprises a sensor (40,60,72,72',72",92,116), the corresponding force on the tracking assembly resulting in a triggering of an output from the sensor; and characterized in that the sensor is an accelerometer,,the corresponding force on the tracking assembly (10,30,50,70,70',70",90,110) resulting in a variance in the output from the accelerometer, the variance in output received by the counter.
A turbofan, comprising: a main plate having a circular shape and being configured to be rotationally driven; a shroud having an annular shape and being arranged to be opposed to the main plate; and a plurality of hollow blades arranged between the main plate and the shroud, each of the plurality of hollow blades including a blade main portion arranged to be spaced apart from another blade main portion in a circumferential direction of the main plate, and a blade cover mounted to the blade main portion to define a hollow space between the blade main portion and the blade cover, a coupling portion between the blade main portion and the blade cover being formed in a surface region, wherein the surface region is parallel to a direction of air flowing over a pressure surface of each of the plurality of hollow blades, the coupling portion extending to a side of the main plate and being behind a leading edge portion on a side of the shroud of the blade main portion, the blade cover being arranged on an inner side of each of the plurality of hollow blades with respect to the blade main portion, characterized by a part of the pressure surface extending to the main plate side and being behind the shroud-side leading edge portion of the blade main portion protruding outward from the pressure surface of the blade cover. a main plate having a circular shape and being configured to be rotationally driven; a shroud having an annular shape and being arranged to be opposed to the main plate; and a plurality of hollow blades arranged between the main plate and the shroud, each of the plurality of hollow blades including a blade main portion arranged to be spaced apart from another blade main portion in a circumferential direction of the main plate, and a blade cover mounted to the blade main portion to define a hollow space between the blade main portion and the blade cover, a blade main portion arranged to be spaced apart from another blade main portion in a circumferential direction of the main plate, and a blade cover mounted to the blade main portion to define a hollow space between the blade main portion and the blade cover, a coupling portion between the blade main portion and the blade cover being formed in a surface region, wherein the surface region is parallel to a direction of air flowing over a pressure surface of each of the plurality of hollow blades, the coupling portion extending to a side of the main plate and being behind a leading edge portion on a side of the shroud of the blade main portion, the blade cover being arranged on an inner side of each of the plurality of hollow blades with respect to the blade main portion, characterized by a part of the pressure surface extending to the main plate side and being behind the shroud-side leading edge portion of the blade main portion protruding outward from the pressure surface of the blade cover.
A pipe element (100, 200) for insulating at least one pipe, said pipe element comprising a base member (110, 210), which enables attachment of the pipe element to a mounting surface and which comprises an outer shell (116, 216) made up of a flat segment (112, 212) and sidewall segments (114a, 114b, 214a, 214b), a first pipe insulation (120, 220) fitted against an internal surface (117, 217) of the outer shell's flat segment and having its outer surface (122, 222) formed with at least one groove (124, 224) for installing at least one pipe in the pipe element, and a first sidewall insulation (121, 221) fitted against the second sidewall segment, in which base member the outer shell has its ends (118a, 118b, 218a, 218b) adapted to bend over the first pipe insulation and sidewall insulation and wherein between the pipe insulation and the sidewall insulation is left a space (160, 260) for installing at least one power or telecommunications cable in the pipe element, and a cover member (130, 230), which is adapted for attachment to the base member and which comprises an outer shell (136, 236) made up of a flat segment (132, 232) and sidewall segments (134a, 134b, 234a, 234b), as well as a second pipe insulation (140, 240) fitted at least against an internal surface (137, 237) of the outer shell's flat segment and having its outer surface (142, 242) formed with at least one groove (144, 244) for installing the at least one pipe in the pipe element, in which cover member the outer shell has its ends (138a, 138b, 238a, 238b) adapted to bend into a position co-directional with the ends of the base member's outer shell and wherein between the second pipe insulation and the second sidewall segment is left a space for installing the at least one power or telecommunications cable in the pipe element, characterized in that when the cover member is in attachment with the base member, the space (160, 260) is protected with a continuous fireproof insulation barrier (180, 182, 184, 186, 280, 282, 284, 286), said fireproof insulation barrier including base member's fireproof insulations (180, 182, 184, 280, 282, 284) and a cover member's fireproof insulation (186, 286).
A voltammetric method for determining the concentration of an analyte in a sample, comprising: applying a pulse sequence to the sample; measuring resulting currents from the pulse sequence; and determining the concentration of the analyte in the sample from at least one of the resulting currents, characterized in that the pulse sequence includes at least two duty cycles, where each of the duty cycles includes an excitation and a relaxation, the excitation includes voltammetric scanning, and the relaxation is from 0.1 to 3 seconds and includes a current reduction to at least one-half the current flow at the maximum of the excitation. applying a pulse sequence to the sample; measuring resulting currents from the pulse sequence; and determining the concentration of the analyte in the sample from at least one of the resulting currents, characterized in that the pulse sequence includes at least two duty cycles, where each of the duty cycles includes an excitation and a relaxation, the excitation includes voltammetric scanning, and the relaxation is from 0.1 to 3 seconds and includes a current reduction to at least one-half the current flow at the maximum of the excitation.
A compound of the formula: wherein R 1 -R 3 each are in the cis position relative to the bond to the carbonyl carbon attached to the cyclohexanediyl ring, and each independently are C 1-20 -alkyl or C 2-20 -alkenyl, each optionally substituted by one or more OH; C 2-20 -alkyl interrupted by O or S; C 1-20 -alkyl substituted by one or more halogens; halogen; trimethylsilyl or cyano.
A method for starting up a pump system in which a liquid flow is generated with a pump and liquid pressure is measured at a flow output of the pump, the method comprising detecting a change in the liquid pressure, characterised in that the method further comprises adjusting a rate of change of rotation speed of the pump to be a descending function of a rate of change of the liquid pressure.
A power supply with non-isolated DE DC splitting, for supplying a direct current voltage (Vs) from a direct current voltage (Ve) applied at the input, including n parallel, interlaced conversion cells (BC i), n being at least equal to 2, each call comprising a main switch receiving a command to switch to the closed state and to the open state in order to respectively close or open a conduction path between a first node and a second node (B 3) of the cell, permitting respectively a phase for storing energy in a storage element and a phase for transferring energy to an output capacitor (Cs) connected between an output terminal (B 2) of the cell and a common terminal (B 3), the main switch forming part of a resonant circuit including an auxiliary switch (Saux) permitting triggering of a resonance phase of the resonant circuit, characterized in that it comprises means for triggering the resonance phase while the main switch of the cell in question is in the closed state, said resonance phase permitting the cancellation of the current in said main switch of the cell, and means for opening the main switch during this cancellation of the current.
A method for preparing a lithium manganese oxide-based cathode active material, comprising the steps of: producing manganese oxide nanoparticles using manganese salts; and mixing the manganese oxide nanoparticles with lithium salts and heat treating the mixture at 350 °C to 430 °C for 1 hour to 3.5 hours, and then heat treating the mixture at 650 °C to 750 °C for 2.5 hours to 8 hours. producing manganese oxide nanoparticles using manganese salts; and mixing the manganese oxide nanoparticles with lithium salts and heat treating the mixture at 350 °C to 430 °C for 1 hour to 3.5 hours, and then heat treating the mixture at 650 °C to 750 °C for 2.5 hours to 8 hours.
Device for detecting crossties of a track, comprising a crosstie detection sensor which can be arranged on a track-laying machine, optionally on a track measuring wagon associated with the track-laying machine, for measuring and determining the position of crossties (5, 19) on the track, characterised in that the crosstie detection sensor comprises a magnet generating a magnetic field (14, 15) in a magnetic circuit with at least one air gap between the crosstie detection sensor and the track, and a Hall sensor arranged in the magnetic circuit, the Hall voltage of which Hall sensor changing in the longitudinal direction (A, s) of the track serves to determine the position of the crossties (5, 19) in the track.
A method for producing an electrical multi-layer component, comprising the steps: - providing a ceramic substrate, - applying a first ceramic layer to the substrate, wherein - the first ceramic layer comprises a first ceramic material and a second ceramic material, - the first ceramic material is applied to a first surface partition of the substrate by a first inkjet printing step and - the second ceramic material is applied to a second surface partition of the substrate by a second inkjet printing step, - wherein the second surface partition surrounds and encloses the first surface partition and - wherein the second ceramic material is different from the first ceramic material. - providing a ceramic substrate, - applying a first ceramic layer to the substrate, wherein - the first ceramic layer comprises a first ceramic material and a second ceramic material, - the first ceramic material is applied to a first surface partition of the substrate by a first inkjet printing step and - the second ceramic material is applied to a second surface partition of the substrate by a second inkjet printing step, - wherein the second surface partition surrounds and encloses the first surface partition and - wherein the second ceramic material is different from the first ceramic material.
A composition for forming an evaporation suppressing thin film upon a body of water, wherein said composition consists of 4 to 8% by weight of a mixture of calcium stearate and sodium oleate, hydroxide of an alkali metal or earth alkali metal and, preferably, iron chloride and said composition is in the form of particles which are 100 to 200 microns in diameter.
A communication modulator (130, 300) employing sample rate conversion, the modulator comprising: a symbol mapping module configured to map an input bitstream to a symbol sequence; a pre-distortion module configured to multiply the symbol sequence by a discrete frequency response to produce a pre-distorted symbol sequence; a modulation module configured to modulate the pre-distorted symbol sequence to a time-domain baseband sample sequence; a sample rate conversion module configured to convert the sample rate of the baseband sample sequence to a different sample rate to produce a sample-rate-converted baseband sample sequence, the sample rate conversion module including an interpolation filter; and an up-conversion module configured to up-convert the sample-rate-converted baseband sample sequence to an intermediate frequency signal; wherein the discrete frequency response by which the pre-distortion module multiplies the symbol sequence is configured to compensate for passband droop introduced to the sample-rate-converted baseband sample sequence by the sample rate conversion module. a symbol mapping module configured to map an input bitstream to a symbol sequence; a pre-distortion module configured to multiply the symbol sequence by a discrete frequency response to produce a pre-distorted symbol sequence; a modulation module configured to modulate the pre-distorted symbol sequence to a time-domain baseband sample sequence; a sample rate conversion module configured to convert the sample rate of the baseband sample sequence to a different sample rate to produce a sample-rate-converted baseband sample sequence, the sample rate conversion module including an interpolation filter; and an up-conversion module configured to up-convert the sample-rate-converted baseband sample sequence to an intermediate frequency signal; wherein the discrete frequency response by which the pre-distortion module multiplies the symbol sequence is configured to compensate for passband droop introduced to the sample-rate-converted baseband sample sequence by the sample rate conversion module.
A compound of formula I: or a pharmaceutically acceptable salt thereof, wherein: W is -O- or -NH-; R 1 is -OR; each R is independently C 1-4 alkyl or C 1-4 fluoroalkyl; each of R 2 and R 3 is independently hydrogen, -OH, or -OR; and R 4 is -CF 3, Cl, or Br. W is -O- or -NH-; R 1 is -OR; each R is independently C 1-4 alkyl or C 1-4 fluoroalkyl; each of R 2 and R 3 is independently hydrogen, -OH, or -OR; and R 4 is -CF 3, Cl, or Br.
An adhesive comprising: a) at least 70 wt% of a polymer blend which comprises i) a metallocene catalyzed polypropylene polymer that has a density range of 0.70 to 0.91g/cm 3, a melt viscosity less than 50,000 mPas (cP) at 190°C and a polydispersity index of less than 3, and ii) a Ziegler-Natta catalyzed amorphous atactic polymer selected from the group consisting of polybutene copolymer, polypropylene copolymer and mixtures thereof, having a viscosity of 500 to 10,000 mPas (cP) determined in accordance with ASTM D3236; b) more than 0 but less than 30 wt% of a tackifier and/or diluent; c) at least one antioxidant; and d) optionally up to 10 wt% of a wax; wherein the adhesive has a viscosity below 11,000 mPas (centipoise) at 150°C, determined in accordance with ASTM D3236; and the total weight adds to 100 wt%. a) at least 70 wt% of a polymer blend which comprises i) a metallocene catalyzed polypropylene polymer that has a density range of 0.70 to 0.91g/cm 3, a melt viscosity less than 50,000 mPas (cP) at 190°C and a polydispersity index of less than 3, and ii) a Ziegler-Natta catalyzed amorphous atactic polymer selected from the group consisting of polybutene copolymer, polypropylene copolymer and mixtures thereof, having a viscosity of 500 to 10,000 mPas (cP) determined in accordance with ASTM D3236; i) a metallocene catalyzed polypropylene polymer that has a density range of 0.70 to 0.91g/cm 3, a melt viscosity less than 50,000 mPas (cP) at 190°C and a polydispersity index of less than 3, and ii) a Ziegler-Natta catalyzed amorphous atactic polymer selected from the group consisting of polybutene copolymer, polypropylene copolymer and mixtures thereof, having a viscosity of 500 to 10,000 mPas (cP) determined in accordance with ASTM D3236; b) more than 0 but less than 30 wt% of a tackifier and/or diluent; c) at least one antioxidant; and d) optionally up to 10 wt% of a wax;
An electronic device including a touch pen, wherein the touch pen comprising: a hollow housing; a coil body disposed in an interior of the hollow housing and comprising an electrical coil having plurality of coil windings; a tip installed to be movable in an inner space of the housing to allow an end thereof to be exposed from the housing; a magnetic body, joined together with the tip of the touch pen and separated from the coil body, a variance in inductance being induced in accordance with a variance of an interval between the magnetic body and the coil body caused by a movement of the magnetic body; and a button unit arranged to move relative to the coil windings and to contact the coil windings to adjust the electrical length of the electrical coil so as to adjust the resonance frequency. a hollow housing; a coil body disposed in an interior of the hollow housing and comprising an electrical coil having plurality of coil windings; a tip installed to be movable in an inner space of the housing to allow an end thereof to be exposed from the housing; a magnetic body, joined together with the tip of the touch pen and separated from the coil body, a variance in inductance being induced in accordance with a variance of an interval between the magnetic body and the coil body caused by a movement of the magnetic body; and a button unit arranged to move relative to the coil windings and to contact the coil windings to adjust the electrical length of the electrical coil so as to adjust the resonance frequency.
A synthetic base obtained by a method comprising: mixing glycine with calcium hydroxide to produce a solution; and adding sodium percarbonate to the solution.
A method of generating a seed placement map for a field and controlling a planter, said method comprising: a) detecting each seed pulse generated by a seed sensor as seed passes through a seed path of a row unit of the planter as it traverses a field during planting operations; b) determining a seed placement location of each seed in said field by associating a time of each generated seed pulse with a location of a GPS unit; c) storing in memory each said seed placement location within said field, characterized by: d) storing in memory a delay in time measured between a time associated with a seed delivery control signal and said time associated with one of said generated seed pulses. a) detecting each seed pulse generated by a seed sensor as seed passes through a seed path of a row unit of the planter as it traverses a field during planting operations; b) determining a seed placement location of each seed in said field by associating a time of each generated seed pulse with a location of a GPS unit; c) storing in memory each said seed placement location within said field, characterized by: d) storing in memory a delay in time measured between a time associated with a seed delivery control signal and said time associated with one of said generated seed pulses.
A fuel cell electrode having both a gas diffusion function and an electrocatalyst function, consisting of: a carbon fiber nonwoven fabric obtained by carbonizing a nonwoven fabric electrospun from a composition containing an electrospinnable polymeric substance, an organic compound as a carbon precursor differing from the polymeric substance, and a transition metal; and a fuel cell catalyst supported on surfaces of the carbon fibers making up the carbon fiber nonwoven fabric, wherein said carbon fiber nonwoven fabric has a flexibility and toughness that has sufficient resistance to folding to avoid breaking even when folded in two, placed between two stainless steel plates and subjected to 98 kPa of loading.