mhurhangee/ep-ind-claims huggingface dataset:
Lithium-ion battery cell comprising: - an anode current collector, - a negative electrode consisting of an Li 4 Ti 5 O 12 -based material, of one or more binder(s) and optionally of one or more additives, - a high-voltage positive electrode consisting of an LiNi x Mn 2-x O 4 -based material, x being between 0.4 and 0.6, - a cathode current collector, - a separator, and - an electrolyte, characterized in that said negative electrode has a bonding energy with respect to the anode current collector, measured by the peel test, by performing the peeling at the negative electrode/anode current collector interface by subjecting it to a tensile force according to an angle of 180° and at a rate of 50 mm/min, greater than or equal to 30 N/m, and said negative-electrode material having a ratio R, defined by the relationship: R = BET LTO × x LTO + 0.25 × BET additives × y additives z binder in which: - BET denotes the specific surface area of the Li 4 Ti 5 O 12 (m 2 /g); - x denotes the weight percentage of Li 4 Ti 5 O 12 relative to the total weight of the negative-electrode material; - BET(additives) denotes the specific surface area of the additive(s) present within the negative-electrode material (m 2 /g), the additives being electron conductors; - y (additives) denotes the weight percentage of additives relative to the total weight of the negative-electrode material; and - z(binders) denotes the weight percentage of binders relative to the total weight of the negative-electrode material, of between 140 and 190. - an anode current collector, - a negative electrode consisting of an Li 4 Ti 5 O 12 -based material, of one or more binder(s) and optionally of one or more additives, - a high-voltage positive electrode consisting of an LiNi x Mn 2-x O 4 -based material, x being between 0.4 and 0.6, - a cathode current collector, - a separator, and - an electrolyte, - BET denotes the specific surface area of the Li 4 Ti 5 O 12 (m 2 /g); - x denotes the weight percentage of Li 4 Ti 5 O 12 relative to the total weight of the negative-electrode material; - BET(additives) denotes the specific surface area of the additive(s) present within the negative-electrode material (m 2 /g), the additives being electron conductors; - y (additives) denotes the weight percentage of additives relative to the total weight of the negative-electrode material; and - z(binders) denotes the weight percentage of binders relative to the total weight of the negative-electrode material,
Solid pharmaceutical composition for oral use in the form of at least one tablet, said tablet consisting of a core comprising potassium citrate as active ingredient, and a coating comprising at least one coating agent, said composition comprising from 40% to 80%, preferably from 50 to 70%, by weight of potassium citrate salt based on the total weight of the composition, the composition being in the form of microtablets, preferably having a size comprised within the range of from 2 to 4 mm, said composition being able to release the potassium citrate salt in vitro, both in a dissolution medium of purified water at pH 7 and in a dissolution medium of solution buffered at pH 1.3, with a dissolution apparatus of type 2, according to the European Pharmacopoeia 2.9.3 " Dissolution test for solid dosage forms ", at a rate of from 2 to 15% in 15 minutes, from 15 to 25% in 30 minutes, and from 30 to 50% in one hour, for use as a medicament in the treatment and/or prevention of urinary lithiases occurring at a physiological pH and/or during urinary acidosis and/or during hypocitraturia and/or during hypercalciuria and/or during hyperoxaluria.
An electronic device (10D; 10F) having an electronic circuit and an external connection terminal that is connected to said electronic circuit, said electronic device comprising: a substrate having a circuit formation surface on which said electronic circuit is formed; an insulating layer formed on said circuit formation surface; and internal wiring that comprises wiring for connecting said electronic circuit to said external connection terminal; characterised in that the said electronic circuit is a low noise amplifier and the said internal wiring further comprises: a spiral inductor and an antenna, said spiral inductor and said antenna forming a layered structure, in which the antenna is distanced further away from said circuit formation surface compared to the spiral inductor; wherein the electronic circuit and the antenna are connected via the spiral inductor, a connecting point of said spiral inductor at which the inductor is connected to said electronic circuit being situated at the inner end of said spiral inductor, and the spiral inductor being an input matching circuit. a substrate having a circuit formation surface on which said electronic circuit is formed; an insulating layer formed on said circuit formation surface; and internal wiring that comprises wiring for connecting said electronic circuit to said external connection terminal; characterised in that the said electronic circuit is a low noise amplifier and the said internal wiring further comprises: a spiral inductor and an antenna, said spiral inductor and said antenna forming a layered structure, in which the antenna is distanced further away from said circuit formation surface compared to the spiral inductor; wherein the electronic circuit and the antenna are connected via the spiral inductor, a connecting point of said spiral inductor at which the inductor is connected to said electronic circuit being situated at the inner end of said spiral inductor, and the spiral inductor being an input matching circuit. a spiral inductor and an antenna, said spiral inductor and said antenna forming a layered structure, in which the antenna is distanced further away from said circuit formation surface compared to the spiral inductor; wherein the electronic circuit and the antenna are connected via the spiral inductor, a connecting point of said spiral inductor at which the inductor is connected to said electronic circuit being situated at the inner end of said spiral inductor, and the spiral inductor being an input matching circuit.
A method of manufacturing an R-T-B rare earth sintered magnet, comprising: a molding step of forming a compact of a first alloy powder; and a sintering step of disposing and sintering the compact and an alloy material of a second alloy in a chamber of a sintering furnace to turn the compact into a sintered body, wherein the first alloy consists of R which represents a rare earth element, T which represents a transition metal essentially containing Fe, B, Cu, a metal element M which represents Al and/or Ga, and inevitable impurities; wherein the first alloy contains 11 at% to 17 at% of R, 4.5 at% to 6 at% of B, 0.05 at% to 0.2 at% of Cu, 0 at% to 1.6 at% of M, and T as the balance, wherein Dy content in all of the rare earth elements of the first alloy is 0 at% to 29 at%, and wherein the second alloy consists of R which represents a rare earth element, T which represents a transition metal essentially containing Fe, B, Cu, a metal element M which represents Al and/or Ga, and inevitable impurities; wherein the second alloy contains 11 at% to 20 at% of R, 4.5 at% to 6 at% of B, 0 at% or 0.05 at% to 0.2 at% of Cu, 0 at% to 1.6 at% of M, and T as the balance, wherein Dy content in all of the rare earth elements of the second alloy is 0 at% to 29 at%. a molding step of forming a compact of a first alloy powder; and a sintering step of disposing and sintering the compact and an alloy material of a second alloy in a chamber of a sintering furnace to turn the compact into a sintered body, wherein the first alloy consists of R which represents a rare earth element, T which represents a transition metal essentially containing Fe, B, Cu, a metal element M which represents Al and/or Ga, and inevitable impurities; wherein the first alloy contains 11 at% to 17 at% of R, 4.5 at% to 6 at% of B, 0.05 at% to 0.2 at% of Cu, 0 at% to 1.6 at% of M, and T as the balance, wherein Dy content in all of the rare earth elements of the first alloy is 0 at% to 29 at%, and wherein the second alloy consists of R which represents a rare earth element, T which represents a transition metal essentially containing Fe, B, Cu, a metal element M which represents Al and/or Ga, and inevitable impurities; wherein the second alloy contains 11 at% to 20 at% of R, 4.5 at% to 6 at% of B, 0 at% or 0.05 at% to 0.2 at% of Cu, 0 at% to 1.6 at% of M, and T as the balance, wherein Dy content in all of the rare earth elements of the second alloy is 0 at% to 29 at%.
A method of operation of a scheduler for a network node of a cellular communications system, comprising: scheduling (steps 300-310) one or more delay-tolerant transmissions by one or more wireless devices in a subframe, wherein the scheduling comprises, for each wireless device: identifying (step 302) from a plurality of available resources in the subframe at least one subset of resources, each subset comprising one or more resources; and for each identified subset, determining (step 304) one or more link adaptation parameters for the wireless device based on information representing a predicted puncturing of delay-tolerant transmissions by a delay-sensitive transmission using the identified subset. identifying (step 302) from a plurality of available resources in the subframe at least one subset of resources, each subset comprising one or more resources; and for each identified subset, determining (step 304) one or more link adaptation parameters for the wireless device based on information representing a predicted puncturing of delay-tolerant transmissions by a delay-sensitive transmission using the identified subset.
Method for obtaining a configuration for joining a ceramic layer comprising a thermal insulating material to a metallic layer, by means of an interface layer made of metallic material and a brazing layer by means of which the interface layer is joint to the metallic layer, the interface layer being located between the ceramic layer and the brazing layer and comprising a plurality of interlocking elements on its side facing the ceramic layer, the interlocking elements being connectable to a plurality of cavities in the ceramic layer; the method comprising the steps of producing the interlocking elements in the metallic material interface layer by means of a laser metal forming process and filling the plurality of cavities in the ceramic layer with metallic filler, protruding from the ceramic layer, such that metallic struts are formed, characterized in that the length of the interlocking elements is selected to define the metallic struts between the ceramic layer and the interface layer such that a defined gap can be built between the ceramic layer and the interface layer.
A sustained release tablet comprising: (a) a compressed core, said compressed core comprising (i) 4-aminopyridine, wherein the amount of 4-aminopyridine in the compressed core is in the range of about 1% w/w to about 10% w/w of the compressed core, (ii) a polyethylene oxide with a molecular weight between about 4,000,000 and 8,000,000, wherein the amount of the polyethylene oxide in the compressed core is in the range of about 10% w/w to about 20% w/w of the compressed core, and a mixture comprising polyvinyl acetate and polyvinyl pyrrolidone, wherein the amount of the mixture comprising polyvinyl acetate and polyvinyl pyrrolidone in the compressed core is in the range of about 20% w/w to about 30% w/w of the compressed core; and (b) an amount of an ethylcellulose coat surrounding said compressed core, said amount of the ethylcellulose coat being in the range of about 5% w/w to about 10% w/w of the compressed core. (a) a compressed core, said compressed core comprising (i) 4-aminopyridine, wherein the amount of 4-aminopyridine in the compressed core is in the range of about 1% w/w to about 10% w/w of the compressed core, (ii) a polyethylene oxide with a molecular weight between about 4,000,000 and 8,000,000, wherein the amount of the polyethylene oxide in the compressed core is in the range of about 10% w/w to about 20% w/w of the compressed core, and a mixture comprising polyvinyl acetate and polyvinyl pyrrolidone, wherein the amount of the mixture comprising polyvinyl acetate and polyvinyl pyrrolidone in the compressed core is in the range of about 20% w/w to about 30% w/w of the compressed core; and (b) an amount of an ethylcellulose coat surrounding said compressed core, said amount of the ethylcellulose coat being in the range of about 5% w/w to about 10% w/w of the compressed core.
A method of performing a vector characterization based on a scalar measurement, the method comprising the following steps: a) generating a multi-tone signal by means of a signal generating device, wherein the multi-tone signal comprises at least three continuous-wave signals, the at least three CW signals having a certain frequency spacing such that each of the three CW signals has a different center frequency, and wherein the signal generating device is configured to vary phases of the at least three CW signals; b) determining a mean power of the multi-tone signal and a peak power of the multi-tone signal by means of a scalar measurement device, wherein the mean power and the peak power are measured at at least one predetermined reference plane (34, 42, 48); and c) varying a phase of at least one of the at least three CW signals by means of the signal generating device such that a ratio of the peak power and the mean power is minimized or maximized, thereby obtaining a first multi-tone signal comprising a first set of CW signals; wherein the method is used in order to calibrate a signal generator, to perform measurements of transfer characteristics and/or reflectivity characteristics of a device under test, and/or to generate a frequency comb with predefined properties. a) generating a multi-tone signal by means of a signal generating device, wherein the multi-tone signal comprises at least three continuous-wave signals, the at least three CW signals having a certain frequency spacing such that each of the three CW signals has a different center frequency, and wherein the signal generating device is configured to vary phases of the at least three CW signals; b) determining a mean power of the multi-tone signal and a peak power of the multi-tone signal by means of a scalar measurement device, wherein the mean power and the peak power are measured at at least one predetermined reference plane (34, 42, 48); and c) varying a phase of at least one of the at least three CW signals by means of the signal generating device such that a ratio of the peak power and the mean power is minimized or maximized, thereby obtaining a first multi-tone signal comprising a first set of CW signals;
Axial flow-through fluid valve comprising a solenoid having a core and a flow-through armature unit, as well as a coil and magnetic return elements (18, 20, 22), a housing in which the solenoid is arranged, an inlet nozzle provided at a first axial end of the housing, an outlet nozzle provided at an opposite axial end of the housing, a support surface at an axial end section (54, 56) of the armature unit, which cooperates with a valve seat,wherein the housing and the outlet nozzle are formed as an integral injection-molded part, characterized in that a sleeve for a fluid valve is provided, having a sleeve body that has a first cylindrical section in which at least one core and an armature are arranged as parts of a solenoid to be made, wherein the sleeve body is designed to be open on both sides, wherein a first end of the sleeve body has a constriction with a contiguous second cylindrical section, and wherein a second end has a widening with a contiguous third cylindrical section, wherein sealing elements (74, 100) are provided on the second and third cylindrical sections (77, 90). a solenoid having a core and a flow-through armature unit, as well as a coil and magnetic return elements (18, 20, 22), a housing in which the solenoid is arranged, an inlet nozzle provided at a first axial end of the housing, an outlet nozzle provided at an opposite axial end of the housing, a support surface at an axial end section (54, 56) of the armature unit, which cooperates with a valve seat,wherein the housing and the outlet nozzle are formed as an integral injection-molded part, characterized in that a sleeve for a fluid valve is provided, having a sleeve body that has a first cylindrical section in which at least one core and an armature are arranged as parts of a solenoid to be made, wherein the sleeve body is designed to be open on both sides, wherein a first end of the sleeve body has a constriction with a contiguous second cylindrical section, and wherein a second end has a widening with a contiguous third cylindrical section, wherein sealing elements (74, 100) are provided on the second and third cylindrical sections (77, 90).
A compostable lid for sealing a capsule containing coffee, consisting of a multilayer article comprising at least: - a non-woven, the fibers of which contain at least 50% by weight of biodegradable fibers, - a support consisting of a vegetable parchment, - at least one oxygen barrier layer. - a non-woven, the fibers of which contain at least 50% by weight of biodegradable fibers, - a support consisting of a vegetable parchment, - at least one oxygen barrier layer.
A moulded product having: a first component having, in cross-section, a wide inner end and a narrow outer end, such that the first component has a trapezoidal cross-sectional shape;and a second component engaging a portion of the first component to form an interface between the first and second components, wherein the second component includes a wall defining a cavity having a wide interior and a narrow entrance, the portion of the first component being received within the wide interior and being trapped at the narrow outer end by the narrow entrance to connect the first and second components; such that the trapezoidal cross-sectional shape of the first component allows the first component to be trapped in the cavity. and wherein the moulded product is characterised in that the first component includes a top surface which is generally flush with a portion of the wall at the entrance of the cavity so that the first component and the second component form a generally unbroken outer surface. a first component having, in cross-section, a wide inner end and a narrow outer end, such that the first component has a trapezoidal cross-sectional shape;and a second component engaging a portion of the first component to form an interface between the first and second components, wherein
Screw for cutting a thread into a component, having a shank which at least in portions is provided with a thread, a screw head having a drive configuration, the latter being adjoined by the shank, wherein, proceeding from an end of the shank that is opposite the head, first a cutting portion and then a holding portion are disposed, wherein the cutting portion and the holding portion are provided with a thread, wherein the holding portion has a larger external diameter in relation to the cutting portion, wherein a truncated-cone-type intermediate portion that is provided with a thread is disposed between the holding portion and the cutting portion, and wherein the cutting portion has a truncated-cone-type starting portion, wherein the holding portion has a circular cross section, wherein the cutting portion has a polygonal cross section having rounded corners and convexly curved lateral edges, in particular a polylobular cross section, wherein a height of the thread flanks (26, 28), measured in the radial direction, in the holding portion is larger than in the cutting portion, wherein a width of the thread flanks (26, 28), measured parallel to a central longitudinal axis of the shank, in the cutting portion, at least at the base of the thread flanks (26, 28), is larger than in the holding portion, and wherein the width (B2, B1) of the thread flanks (26, 28), on the radially outer end thereof, in the cutting portion is larger than in the holding portion.
An all back contact solar cell comprising: a single crystalline silicon substrate; a thin dielectric layer formed on a backside surface of the single crystalline silicon substrate; a first emitter of the solar cell, the first emitter of the solar cell being formed on the thin dielectric layer and comprising polycrystalline silicon doped to have a first polarity; a second emitter of the solar cell, the second emitter of the solar cell being formed in the single crystalline silicon substrate and comprising single crystalline silicon doped to have a second polarity opposite the first polarity; a first metal contact connected to the first emitter on a backside of the solar cell, the backside being opposite a front side of the solar cell that faces the sun during normal operation; and a second metal contact connected to the second emitter on the backside of the solar cell, wherein the thin dielectric layer is only under the first emitter. a single crystalline silicon substrate; a thin dielectric layer formed on a backside surface of the single crystalline silicon substrate; a first emitter of the solar cell, the first emitter of the solar cell being formed on the thin dielectric layer and comprising polycrystalline silicon doped to have a first polarity; a second emitter of the solar cell, the second emitter of the solar cell being formed in the single crystalline silicon substrate and comprising single crystalline silicon doped to have a second polarity opposite the first polarity; a first metal contact connected to the first emitter on a backside of the solar cell, the backside being opposite a front side of the solar cell that faces the sun during normal operation; and a second metal contact connected to the second emitter on the backside of the solar cell, wherein the thin dielectric layer is only under the first emitter.
A method for determining soil clod size within a field, the method comprising: receiving, with a computing system, an image depicting an imaged portion of the field, identifying, with the computing system, a soil clod present within the imaged portion of the field; determining, with the computing system, a maximum height of the identified soil clod above a soil surface of the field; determining, with the computing system, a maximum length of the identified soil clod; characterized by: determining, with the computing system, a radius of a sphere based on the determined maximum height and the determined maximum length, the sphere including a first portion approximating a portion of the identified soil clod positioned above the soil surface and a second portion approximating a portion of the identified soil clod positioned below the soil surface; and determining, with the computing system, a size of the identified soil clod based on the determined radius. receiving, with a computing system, an image depicting an imaged portion of the field, identifying, with the computing system, a soil clod present within the imaged portion of the field; determining, with the computing system, a maximum height of the identified soil clod above a soil surface of the field; determining, with the computing system, a maximum length of the identified soil clod; characterized by: determining, with the computing system, a radius of a sphere based on the determined maximum height and the determined maximum length, the sphere including a first portion approximating a portion of the identified soil clod positioned above the soil surface and a second portion approximating a portion of the identified soil clod positioned below the soil surface; and determining, with the computing system, a size of the identified soil clod based on the determined radius. determining, with the computing system, a radius of a sphere based on the determined maximum height and the determined maximum length, the sphere including a first portion approximating a portion of the identified soil clod positioned above the soil surface and a second portion approximating a portion of the identified soil clod positioned below the soil surface; and determining, with the computing system, a size of the identified soil clod based on the determined radius.