mhurhangee/ep-ind-claims huggingface dataset:
A mesh filter used for filtering out foreign substances in fluid comprising: an inner cylinder; an outer cylinder surrounding the inner cylinder; and a filter unit configured to connect an outer peripheral surface of the inner cylinder and an inner peripheral surface of the outer cylinder along a radial direction of the inner cylinder, assuming a virtual plane orthogonal to a center axis of the inner cylinder to be an X-Y plane, the filter unit is formed along the X-Y plane, a portion of the filter unit other than a connecting portion between the inner cylinder and the outer cylinder is provided with a plurality of square-shaped openings formed by a plurality of vertical ribs formed equidistantly so as to be orthogonal to an X-axis and in parallel to a Y-axis, and a plurality of lateral ribs formed equidistantly so as to be orthogonal to the vertical ribs and in parallel with the X-axis, rib widths, which are dimensions between adjacent openings of the vertical ribs and the lateral ribs fall within a range from 0.07 mm to 0.1 mm, and thicknesses, which are dimensions in a direction along the center axis of the inner cylinder, thereof fall within a range from 0.2 mm to 0.4 mm, and the inner cylinder, the outer cylinder, and the filter unit are molded integrally by injecting a thermoplastic resin in a melted state from a gate opening at a cavity portion of a cavity of the mold, which forms the inner cylinder, into the cavity portion. an inner cylinder; an outer cylinder surrounding the inner cylinder; and a filter unit configured to connect an outer peripheral surface of the inner cylinder and an inner peripheral surface of the outer cylinder along a radial direction of the inner cylinder, assuming a virtual plane orthogonal to a center axis of the inner cylinder to be an X-Y plane, the filter unit is formed along the X-Y plane, a portion of the filter unit other than a connecting portion between the inner cylinder and the outer cylinder is provided with a plurality of square-shaped openings formed by a plurality of vertical ribs formed equidistantly so as to be orthogonal to an X-axis and in parallel to a Y-axis, and a plurality of lateral ribs formed equidistantly so as to be orthogonal to the vertical ribs and in parallel with the X-axis, rib widths, which are dimensions between adjacent openings of the vertical ribs and the lateral ribs fall within a range from 0.07 mm to 0.1 mm, and thicknesses, which are dimensions in a direction along the center axis of the inner cylinder, thereof fall within a range from 0.2 mm to 0.4 mm, and the inner cylinder, the outer cylinder, and the filter unit are molded integrally by injecting a thermoplastic resin in a melted state from a gate opening at a cavity portion of a cavity of the mold, which forms the inner cylinder, into the cavity portion.
A method for manufacturing a separator, comprising: preparing a porous planar substrate having multiple pores; coating a coating solution obtained by dissolving a binder polymer in a solvent and dispersing inoganic particles therein on the porous substrate to form a porous coating layer and drying the porous coating layer; and applying a binder solution on the surface of the dried porous coating layer to form an adhesive layer, characterized in that the binder solution has a surface energy of 10 mN/m to 50 mN/m higher than that of the porous coating layer and that a contact angle of the binder solution to the surface of the porous coating layer is maintained at 80° to 130° for 30 seconds, by applying the binder solution on the surface of the dried porous coating layer at a speed of 40 m/min or more by way of a spraying method. preparing a porous planar substrate having multiple pores; coating a coating solution obtained by dissolving a binder polymer in a solvent and dispersing inoganic particles therein on the porous substrate to form a porous coating layer and drying the porous coating layer; and applying a binder solution on the surface of the dried porous coating layer to form an adhesive layer,
A process for preparing an expanded, cooked, egg and added-protein snack food comprising extruding an extrusion composition under heat and pressure to form an expanded, cooked, egg and added-protein snack food; wherein the extrusion composition comprises a) whole liquid egg present in an amount of from 5 to 25% by weight based on the total weight of the extrusion composition, b) an added protein concentrate or isolate selected from the group consisting of rice protein, soy protein, whey protein or mixtures thereof, in an amount of from 20 to 40 % by weight based on the total weight of the extrusion composition, so that the total protein present in the expanded, cooked, egg and added-protein snack food is from 25 to 40 % by weight, and c) starch present in an amount of from 45% to 75 % by weight based on the total weight of the extrusion composition; wherein the expanded, cooked, egg and added-protein snack food has a density no greater than 300 grams per 1639 cm 3 (100 cubic inch) and is gluten free. wherein the extrusion composition comprises a) whole liquid egg present in an amount of from 5 to 25% by weight based on the total weight of the extrusion composition, b) an added protein concentrate or isolate selected from the group consisting of rice protein, soy protein, whey protein or mixtures thereof, in an amount of from 20 to 40 % by weight based on the total weight of the extrusion composition, so that the total protein present in the expanded, cooked, egg and added-protein snack food is from 25 to 40 % by weight, and c) starch present in an amount of from 45% to 75 % by weight based on the total weight of the extrusion composition; a) whole liquid egg present in an amount of from 5 to 25% by weight based on the total weight of the extrusion composition, b) an added protein concentrate or isolate selected from the group consisting of rice protein, soy protein, whey protein or mixtures thereof, in an amount of from 20 to 40 % by weight based on the total weight of the extrusion composition, so that the total protein present in the expanded, cooked, egg and added-protein snack food is from 25 to 40 % by weight, and c) starch present in an amount of from 45% to 75 % by weight based on the total weight of the extrusion composition; wherein the expanded, cooked, egg and added-protein snack food has a density no greater than 300 grams per 1639 cm 3 (100 cubic inch) and is gluten free.
A charging tip for an electric cigarette, which has a cartridge unit and a control unit detachably arranged thereon along a central Z-axis from bottom to top, wherein this charging tip can be arranged at an end of the electric cigarette facing away from the cartridge unit and wherein this charging tip has a number of electrical contact surfaces which can be contacted for the purpose of charging the electric cigarette and/or for the purpose of exchanging data with the electric cigarette, wherein the charging tip comprises a control element body with a body diameter perpendicular to the central Z-axis, this body diameter being selected such that the control element body can form a tight fit with the electronic cigarette, characterized in that the control element body is designed as a printed circuit board structure and that the printed circuit board structure comprises at least one printed circuit board insulated by means of an insulating filling, wherein this at least one printed circuit board can be aligned transversely to the Z-axis.
A color reflective display including a color reflective display panel comprising in sequence on a substrate: an electrode pattern layer; a reflective display-material layer; a light-transmissive electrode layer; a transparent layer; and a color filter layer including an array of colored pixels, characterized in that the color reflective display satisfies either the following first requirement: 0 ≤ 0.54 × C − 15 μm ≤ D ≤ 0.54 × C where C represents the distance in the thickness direction of the panel from the reflective display-material layer to the color filter layer and D represents the interval in plan view between adjacent colored pixels of the color filter layer, when the value of (0.54× C)-15 μm is zero or a positive value, or the following second requirement: 0 < D ≤ 0.54 × C < 15 μm when the value of (0.54× C)-15 μm is a negative value. an electrode pattern layer; a reflective display-material layer; a light-transmissive electrode layer; a transparent layer; and a color filter layer including an array of colored pixels, characterized in that the color reflective display satisfies either the following first requirement: 0 ≤ 0.54 × C − 15 μm ≤ D ≤ 0.54 × C where C represents the distance in the thickness direction of the panel from the reflective display-material layer to the color filter layer and D represents the interval in plan view between adjacent colored pixels of the color filter layer, when the value of (0.54× C)-15 μm is zero or a positive value, or the following second requirement: 0 < D ≤ 0.54 × C < 15 μm when the value of (0.54× C)-15 μm is a negative value.
A method for reducing metal-mold reaction in a metal casting process, comprising the steps of: providing an organic binder system and a refractory molding material, the organic binder system provided as three components, the first component being a polyol component and the second component being a polyisocyanate component, and the third component comprising at least one of: an alkyl silicate and an alkyl orthoformate that are not combined until the time of use; mixing at least the first component and the second component with the refractory molding material to provide a shapeable foundry mix; forming the shapeable foundry mix into a mold or core; and curing the mold or core formed, wherein the first and the second component of the organic binder system but not the third component are combined prior to being mixed with the refractory molding material. providing an organic binder system and a refractory molding material, the organic binder system provided as three components, the first component being a polyol component and the second component being a polyisocyanate component, and the third component comprising at least one of: an alkyl silicate and an alkyl orthoformate that are not combined until the time of use; mixing at least the first component and the second component with the refractory molding material to provide a shapeable foundry mix; forming the shapeable foundry mix into a mold or core; and curing the mold or core formed, wherein the first and the second component of the organic binder system but not the third component are combined prior to being mixed with the refractory molding material.
A computer-implemented method of generating a response to a spoken input, the method comprising: obtaining an audio input stream; detecting in the audio input stream a beginning of a first utterance (U 1); detecting in the audio input stream an end of the first utterance; responsive to detecting the end of the first utterance, initiating processing of the first utterance to recognize a first query, wherein recognizing the first query is conditional on the presence of an end-of-utterance boundary at the end of the first query; and while processing the first utterance: continuing to receive the audio input stream; and detecting a beginning of a second utterance (U 2) in the audio stream. obtaining an audio input stream; detecting in the audio input stream a beginning of a first utterance (U 1); detecting in the audio input stream an end of the first utterance; responsive to detecting the end of the first utterance, initiating processing of the first utterance to recognize a first query, wherein recognizing the first query is conditional on the presence of an end-of-utterance boundary at the end of the first query; and while processing the first utterance: continuing to receive the audio input stream; and detecting a beginning of a second utterance (U 2) in the audio stream. continuing to receive the audio input stream; and detecting a beginning of a second utterance (U 2) in the audio stream.
An exhaust gas muffler arrangement for an internal combustion engine, especially an electric generator unit, comprising a pre-muffler and a post-muffler, wherein the pre-muffler and the post-muffler are arranged in a common housing, and wherein the pre-muffler is arranged in a first chamber and the post-muffler in a second chamber of the housing, and wherein the two chambers (3, 4) are flow-connected to each other by at least one flow connection, characterised in that a separating wall of the two chambers (3, 4) which has the flow connection comprises at least one thermal insulation.
An isolated human monoclonal antibody that binds to EGFRvIII, wherein the antibody comprises a heavy chain polypeptide and a light chain polypeptide, wherein the heavy chain polypeptide comprises an amino acid sequence that is at least 90% identical to the amino acid sequence selected from the group consisting of: SEQ ID NO: 2 and SEQ ID NO: 142, wherein the light chain polypeptide comprises an amino acid sequence that is at least 90% identical to the amino acid sequence selected from the group consisting of: SEQ ID NO: 19 and SEQ ID NO: 144, and wherein the human monoclonal antibody specifically binds to the amino acid sequence EEKKGNYVVT (SEQ ID NO: 57), and wherein: the antibody binds with a K D of less than 1nM; or upon binding of the antibody to EGFRvIII on a cell, at least about 70% of the antibody is internalized; or the antibody binds with a K D of less than 1nM and upon binding of the antibody to EGFRvIII on a cell, at least about 70% of the antibody is internalized. the antibody binds with a K D of less than 1nM; or upon binding of the antibody to EGFRvIII on a cell, at least about 70% of the antibody is internalized; or the antibody binds with a K D of less than 1nM and upon binding of the antibody to EGFRvIII on a cell, at least about 70% of the antibody is internalized.
Method for evaporating a liquid comprising the following steps: - absorption of the liquid by an absorption organ comprising a plurality of absorbent strips suited to retain the liquid, each strip having a first end and a second end, the liquid comprising at least one essential oil, a volatile synthetic product, or a volatile synthetic product with biocidal properties; - production of a gas flow, which is directed towards the absorption organ; characterized in that the method comprises a step of evaporation of the liquid at a temperature below 50 °C, the gas flow being at a temperature below 50 °C; in that the liquid is injected into the absorption organ from the reservoir by an organ for injecting comprising a dosing pump, and in that the injection organ has a liquid injection output, liquid injection output being arranged near the first end of each strip, such that the liquid is injected into the first end of each strip and flows by gravity along each absorbent strip towards the second end. - absorption of the liquid by an absorption organ comprising a plurality of absorbent strips suited to retain the liquid, each strip having a first end and a second end, the liquid comprising at least one essential oil, a volatile synthetic product, or a volatile synthetic product with biocidal properties; - production of a gas flow, which is directed towards the absorption organ; characterized in that the method comprises a step of evaporation of the liquid at a temperature below 50 °C, the gas flow being at a temperature below 50 °C; in that the liquid is injected into the absorption organ from the reservoir by an organ for injecting comprising a dosing pump, and in that the injection organ has a liquid injection output, liquid injection output being arranged near the first end of each strip, such that the liquid is injected into the first end of each strip and flows by gravity along each absorbent strip towards the second end.
A wireless communications system, comprising: a first wireless communications module configured to transmit or receive a first wireless signal; a second wireless communications module configured to transmit or receive a second wireless signal; a plurality of transceiving paths for connecting the first wireless communications module and the second wireless communications module to an antenna, and an RF module configured to allocate a first transceiving path and a second transceiving path of the plurality of transceiving paths to the first wireless communications module and the second wireless communications module, respectively, to enable the transmission or reception of the first wireless signal and the second wireless signal at the same time, wherein the first transceiving path and the second transceiving path are allocated according to signal indicators of the first wireless signal or the second wireless signal, characterized in that the first transceiving path has a smaller path loss than the second transceiving path when the signal indicator of the first wireless signal is lower than a threshold and the second transceiving path has a smaller path loss than the first transceiving path when the signal indicator of the first wireless signal is greater than a threshold. a first wireless communications module configured to transmit or receive a first wireless signal; a second wireless communications module configured to transmit or receive a second wireless signal; a plurality of transceiving paths for connecting the first wireless communications module and the second wireless communications module to an antenna, and an RF module configured to allocate a first transceiving path and a second transceiving path of the plurality of transceiving paths to the first wireless communications module and the second wireless communications module, respectively, to enable the transmission or reception of the first wireless signal and the second wireless signal at the same time, wherein the first transceiving path and the second transceiving path are allocated according to signal indicators of the first wireless signal or the second wireless signal, characterized in that the first transceiving path has a smaller path loss than the second transceiving path when the signal indicator of the first wireless signal is lower than a threshold and the second transceiving path has a smaller path loss than the first transceiving path when the signal indicator of the first wireless signal is greater than a threshold.
A method for welding profiled elements in plastic material, in particular PVC, comprising the steps of: - preparing at least two profiled elements (3; 3a, 3b; 60, 61), arranged with respective zones to be welded (4; 62, 63) facing one another; - making a groove in correspondence to at least one zone to be welded (4; 62, 63) of the profiled elements (3; 3a, 3b; 60, 61), said step of making the groove being performed by means of a removal operation on a peripheral edge of at least one profiled element (3; 3a, 3b; 60, 61); - heating said zones to be welded (4; 62, 63); - coupling the zones to be welded (4; 62, 63) to one another, pressing the profiled elements (3; 3a, 3b; 60, 61) one against the other so as to keep the zones to be welded (4; 62, 63) in reciprocal contact; - said step of coupling the zones to be welded (4; 62, 63) comprising a sub-step of melting the zones to be welded (4; 62, 63) into one another in order to define a welding bead and a sub-step of making a containing compartment defined by said at least one groove; said welding bead being made internally of said containing compartment; characterised in that said step of coupling the zones to be welded (4; 62, 63) comprises the step of arranging a containing presser in correspondence to said containing compartment for preventing exit of the welding bead from the compartment itself. - preparing at least two profiled elements (3; 3a, 3b; 60, 61), arranged with respective zones to be welded (4; 62, 63) facing one another; - making a groove in correspondence to at least one zone to be welded (4; 62, 63) of the profiled elements (3; 3a, 3b; 60, 61), said step of making the groove being performed by means of a removal operation on a peripheral edge of at least one profiled element (3; 3a, 3b; 60, 61); - heating said zones to be welded (4; 62, 63); - coupling the zones to be welded (4; 62, 63) to one another, pressing the profiled elements (3; 3a, 3b; 60, 61) one against the other so as to keep the zones to be welded (4; 62, 63) in reciprocal contact; - said step of coupling the zones to be welded (4; 62, 63) comprising a sub-step of melting the zones to be welded (4; 62, 63) into one another in order to define a welding bead and a sub-step of making a containing compartment defined by said at least one groove; said welding bead being made internally of said containing compartment;
A method of processing of detected radiation data from a semiconductor detector device comprising the steps of; detecting a photon interaction event at the detector; producing a pulse from the interaction event; determining for the pulse: a pulse height (H') representative of pulse magnitude; a pulse width (W') representative of pulse duration; characterised by: assigning the pulse to one of at least two classes based on the determined pulse height/ pulse width wherein the at least two classes are defined by defining bounding conditions around regions in pulse height/ pulse width space and the pulses are assigned as follows: (i) a first class if the pulse height/ pulse width is within a threshold range of a first notional bounding condition of pulse height/ pulse width values; (ii) subject to (iii) below, a second class if the pulse height/ pulse width is outside the threshold range; (iii) optionally, a third class if a pulse height/ pulse width otherwise in compliance with (ii) above fails to meet an acceptance criterion; applying to each pulse an algorithm specific to its particular class to produce an output pulse height/ pulse width profile, wherein at least one of the said algorithms is a modification algorithm that modifies the pulse height/ pulse width profile of the pulse and the pulses are processed by: (a) if the pulse is assigned to the first class, applying a first algorithm to produce an output pulse height/ pulse width profile, and using the pulse height and/ or width so produced for further processing; (b) if the pulse is assigned to the second class, applying a second algorithm to produce an output pulse height/ pulse width profile, and using the pulse height and/ or width so produced for further processing; (c) if the pulse is assigned to the third class, discarding the pulse. a pulse height (H') representative of pulse magnitude; a pulse width (W') representative of pulse duration; characterised by: (i) a first class if the pulse height/ pulse width is within a threshold range of a first notional bounding condition of pulse height/ pulse width values; (ii) subject to (iii) below, a second class if the pulse height/ pulse width is outside the threshold range; (iii) optionally, a third class if a pulse height/ pulse width otherwise in compliance with (ii) above fails to meet an acceptance criterion; (a) if the pulse is assigned to the first class, applying a first algorithm to produce an output pulse height/ pulse width profile, and using the pulse height and/ or width so produced for further processing; (b) if the pulse is assigned to the second class, applying a second algorithm to produce an output pulse height/ pulse width profile, and using the pulse height and/ or width so produced for further processing; (c) if the pulse is assigned to the third class, discarding the pulse.