mhurhangee/ep-ind-claims huggingface dataset:
A bicomponent fiber, comprising: a first region formed of a condensation polymer; and a second region formed from a polypropylene blend of: (i) a propylene-based polymer having a density of 0.895 g/cm 3 to 0.920 g/cm 3 and a melt index, I 2, as determined by ASTM D1238 at 230 °C and 2.16 kg of 0.5 to 150 g/10 minutes; (ii) a maleic anhydride-grafted polypropylene; and (iii) an inorganic Brønsted-Lowry acid having an acid strength pKa value at 25 °C of 1 to 6.5, wherein the polypropylene blend has a 0.03 to 0.3 weight percent of grafted maleic anhydride based on the total weight of the polypropylene blend. a first region formed of a condensation polymer; and a second region formed from a polypropylene blend of: (i) a propylene-based polymer having a density of 0.895 g/cm 3 to 0.920 g/cm 3 and a melt index, I 2, as determined by ASTM D1238 at 230 °C and 2.16 kg of 0.5 to 150 g/10 minutes; (ii) a maleic anhydride-grafted polypropylene; and (iii) an inorganic Brønsted-Lowry acid having an acid strength pKa value at 25 °C of 1 to 6.5, wherein the polypropylene blend has a 0.03 to 0.3 weight percent of grafted maleic anhydride based on the total weight of the polypropylene blend. (i) a propylene-based polymer having a density of 0.895 g/cm 3 to 0.920 g/cm 3 and a melt index, I 2, as determined by ASTM D1238 at 230 °C and 2.16 kg of 0.5 to 150 g/10 minutes; (ii) a maleic anhydride-grafted polypropylene; and (iii) an inorganic Brønsted-Lowry acid having an acid strength pKa value at 25 °C of 1 to 6.5, wherein the polypropylene blend has a 0.03 to 0.3 weight percent of grafted maleic anhydride based on the total weight of the polypropylene blend.
Device for continuously supplying a consumer with gas, having a first withdrawal line, connected to a first compressed gas reservoir, and a second withdrawal line, connected to a second compressed gas reservoir, which open into a common delivery line, and having a changeover device which is equipped with pressure measuring devices (24, 25) and shutoff devices (22, 23) in the withdrawal lines (8, 16) and is adapted such that, when the pressure at the shutoff device in the first withdrawal line falls below a predefined inflow-side pressure value, the shutoff device closes and the shutoff device in the second withdrawal line opens, characterized in that the changeover device is adapted such that, if a pressure value is present on the inflow side at the shutoff device in the first withdrawal line that is above the inflow-side pressure at the shutoff device in the second withdrawal line, a flow connection is established between the first compressed gas reservoir and the second compressed gas reservoir, wherein the changeover device comprises a controller by means of which the shutoff devices (22, 23) are operated automatically in dependence on the pressures measured in the withdrawal lines (8, 16).
An apparatus comprising: a gas turbine engine flange assembly including: a first flange, a second flange, and a third flange, the second flange being positioned intermediate the first flange and the third flange; and a fluid flow circuit extending intermediate the first flange and the second flange, across the second flange, and intermediate the second flange and the third flange; wherein the fluid flow circuit includes a first flow passage intermediate the first flange and the second flange, at least one opening provided in the second flange, and a second flow passage intermediate the second flange and the third flange; characterized in that the first flow passage is bordered by a first shim plate, the first flange and the second flange. a gas turbine engine flange assembly including: a first flange, a second flange, and a third flange, a first flange, a second flange, and a third flange, the second flange being positioned intermediate the first flange and the third flange; and a fluid flow circuit extending intermediate the first flange and the second flange, across the second flange, and intermediate the second flange and the third flange; wherein the fluid flow circuit includes a first flow passage intermediate the first flange and the second flange, at least one opening provided in the second flange, and a second flow passage intermediate the second flange and the third flange; characterized in that the first flow passage is bordered by a first shim plate, the first flange and the second flange.
A gas circuit breaker comprising: a movable electrode part and a fixed electrode part which are arranged to face each other and engaging/separating manner in a container air-tightly filled with an insulating gas; an operating mechanism attached to the outer side of a partition of the container and configured to output an operating force from an output part to the movable electrode part; an operating rod including one end attached to the movable electrode part; a first link including one end rotatably attached to the operating rod; a lever including one end rotatably attached to the first link; a support bearing which is fixed to the partition of the container via an insulating spacer; a second link including one end rotatably attached to the lever and the other end rotatably attached to the support bearing; a seal bearing configured to penetrate through the partition of the container; a seal rod which is rotatably attached to the vicinity of the center of the lever and is slidably supported to the seal bearing; and a third link including one end rotatably attached to the seal rod and the other end attached to the output part of the operating mechanism. a movable electrode part and a fixed electrode part which are arranged to face each other and engaging/separating manner in a container air-tightly filled with an insulating gas; an operating mechanism attached to the outer side of a partition of the container and configured to output an operating force from an output part to the movable electrode part; an operating rod including one end attached to the movable electrode part; a first link including one end rotatably attached to the operating rod; a lever including one end rotatably attached to the first link; a support bearing which is fixed to the partition of the container via an insulating spacer; a second link including one end rotatably attached to the lever and the other end rotatably attached to the support bearing; a seal bearing configured to penetrate through the partition of the container; a seal rod which is rotatably attached to the vicinity of the center of the lever and is slidably supported to the seal bearing; and a third link including one end rotatably attached to the seal rod and the other end attached to the output part of the operating mechanism.
A method for creating a renal injury model, wherein the renal injury model is an animal model to study renal injury, wherein the method comprises the following steps: a) inducing, in a non-human test subject, renal injury by administering subcutaneously and/or intravenously a bolus of a renal injury inducer, in a dosage sufficiently high to induce renal injury, b) determining at least the albumin creatinine ratio in a urine sample taken from the non-human test subject, and c) determining from the ACR determined in step b) the degree of renal injury that has been induced in the non-human test subject, wherein the renal injury inducer is selected from the group consisting of Angiotensin II, Vasopressin, Sema3a and heparanase. wherein the renal injury model is an animal model to study renal injury, wherein the method comprises the following steps: a) inducing, in a non-human test subject, renal injury by administering subcutaneously and/or intravenously a bolus of a renal injury inducer, in a dosage sufficiently high to induce renal injury, b) determining at least the albumin creatinine ratio in a urine sample taken from the non-human test subject, and c) determining from the ACR determined in step b) the degree of renal injury that has been induced in the non-human test subject, a) inducing, in a non-human test subject, renal injury by administering subcutaneously and/or intravenously a bolus of a renal injury inducer, in a dosage sufficiently high to induce renal injury, b) determining at least the albumin creatinine ratio in a urine sample taken from the non-human test subject, and c) determining from the ACR determined in step b) the degree of renal injury that has been induced in the non-human test subject, wherein the renal injury inducer is selected from the group consisting of Angiotensin II, Vasopressin, Sema3a and heparanase.
A ball refiner device comprising a refiner unit having a basket in which a plurality of balls is placed, and an agitation member mounted in the basket and rotatable relative thereto, capable of agitating the plurality of balls to refine a product placed in the basket, the agitation member comprising selectively detachable means of attachment for coupling, in use, to a drive member of equipment for which the ball refiner device forms an accessory tool.
A furnace stave comprising a plurality of internal channels or conduits for circulating cooling fluid through the stave; an inlet and an outlet channel (96, 97, 98) associated with each internal channel or conduit; wherein one of the internal channels or conduits is disposed in a protrusion from the stave; wherein the protrusion is located at the top of the stave.
An aircraft comprising a cabin and an air conditioning system for said cabin, - said air-conditioning system comprising a housing for mixing air provided with at least one intake (28, 30) for cooled air, at least one intake (24, 25) for air already having circulated in the cabin and at least one outlet making it possible to supply said cabin with mixed air, and - said aircraft including a sealed separating partition (23, 43), placed between the cabin and a compartment situated at the rear of said cabin and making it possible to keep said cabin pressurized, said partition (23, 43) constituting a wall at least partially delimiting the mixing housing, characterized in that the intake (24, 25) for air already having circulated in the cabin is embodied by a duct (24, 25) placed below a floor of the cabin, and emerging in a lower zone of the mixing housing, and in that the outlet for supplying air to the cabin is embodied by a duct originating at an upper zone of the mixing housing and extending in a ceiling of the cabin. - said air-conditioning system comprising a housing for mixing air provided with at least one intake (28, 30) for cooled air, at least one intake (24, 25) for air already having circulated in the cabin and at least one outlet making it possible to supply said cabin with mixed air, and - said aircraft including a sealed separating partition (23, 43), placed between the cabin and a compartment situated at the rear of said cabin and making it possible to keep said cabin pressurized, said partition (23, 43) constituting a wall at least partially delimiting the mixing housing,
A turbine blade structure comprising an air foil extending between an outer and an inner shroud surface and having a leading edge, a trailing edge, a pressure surface, and a suction surface, wherein a space inside the air foil is divided into a plurality of cavities (C1, C2, C3, C4) by rib member provided substantially perpendicular to a center line connecting the leading edge and the trailing edge, and wherein partition members (20;20';20A;20B;20B;20C) are provided that partition insides of the cavities (C2,C3) located in the central portion of the air foil, excluding the cavity located closest to the leading-edge and the cavity located closest to the trailing-edge, into a pressure side cavity (C2a,C3a) and a suction side cavity (C2b,C3b) substantially along the center line, characterized in that the partition members (20;20';20A;20B;20B;20C) are mounted by inserting leading-edge end portions and trailing-edge end portions of the partition members (20;20.';20A;20B;20B;20C) from one shroud surface side to the other shroud surface side along engagement grooves (13;13A;13B;15) formed on the rib members, and a sealing mechanism (30; 30A; 30B; 30C) is provided between the partition members (20;20';20A;20B;20B;2OC) and the engagement grooves (13;13A;13B;15) for blocking the flow of cooling air between the pressure-side-cavity (C2a,C3a)- and the suction side cavity (C2b,C3b) separated by the respective partition member (20;20';20A;20B;20B;20C).
A computer-implemented method of configuring a screen of an electronic apparatus, the method comprising: obtaining data that is configured in a first configuration based on a first font; configuring the data in a second configuration, based on a second font; identifying a difference between a first layout attribute of the first configuration and a second layout attribute of the second configuration; and changing, if the difference is greater than a predetermined critical value, the second configuration into a third configuration, and displaying the data in the third configuration; wherein a difference between the first layout attribute of the first configuration and a third layout attribute of the third configuration is equal to or less than the predetermined critical value; and characterized in that the first layout attribute, second layout attribute and third layout attribute include at least one of a height, area or a width-to-height ratio of the first configuration, second configuration and third configuration respectively. obtaining data that is configured in a first configuration based on a first font; configuring the data in a second configuration, based on a second font; identifying a difference between a first layout attribute of the first configuration and a second layout attribute of the second configuration; and changing, if the difference is greater than a predetermined critical value, the second configuration into a third configuration, and displaying the data in the third configuration; wherein a difference between the first layout attribute of the first configuration and a third layout attribute of the third configuration is equal to or less than the predetermined critical value; and characterized in that the first layout attribute, second layout attribute and third layout attribute include at least one of a height, area or a width-to-height ratio of the first configuration, second configuration and third configuration respectively.
An open loop cooling system configured for utilizing the expansion of a first stream of a first refrigerant to cool a second stream of a second refrigerant, the system comprising: (i) a chiller pump for pumping the second refrigerant, the chiller pump having a pump housing and a pump head, and the chiller pump being configured to produce a mass flow rate that is repeatable and proportionate to the operational speed of the chiller pump; (ii) a heat exchanger (310, 2710) configured in said pump housing or a portion of the said pump housing and comprising: one or more inlets into the pump housing; an outlet from the pump housing; one or more channels (2755, 2755') configured in the pump housing between and connecting the one or more inlets and the outlet, the one or more channels (2755, 2755') extending along the pump housing; and an expansion device in the form of an orifice (2750, 2750') for expanding and cooling the first stream of the first refrigerant into the channels (2755, 2755') by virtue of the Joule-Thompson effect to cool the chiller pump and to cool the second stream of the second refrigerant pumped thereby, and (iii) a system outlet for exhausting the first stream of the first refrigerant from the open loop cooling system and dissipating into the air surrounding the system. (i) a chiller pump for pumping the second refrigerant, the chiller pump having a pump housing and a pump head, and the chiller pump being configured to produce a mass flow rate that is repeatable and proportionate to the operational speed of the chiller pump; (ii) a heat exchanger (310, 2710) configured in said pump housing or a portion of the said pump housing and comprising: one or more inlets into the pump housing; an outlet from the pump housing; one or more channels (2755, 2755') configured in the pump housing between and connecting the one or more inlets and the outlet, the one or more channels (2755, 2755') extending along the pump housing; and an expansion device in the form of an orifice (2750, 2750') for expanding and cooling the first stream of the first refrigerant into the channels (2755, 2755') by virtue of the Joule-Thompson effect to cool the chiller pump and to cool the second stream of the second refrigerant pumped thereby, and one or more inlets into the pump housing; an outlet from the pump housing; one or more channels (2755, 2755') configured in the pump housing between and connecting the one or more inlets and the outlet, the one or more channels (2755, 2755') extending along the pump housing; and an expansion device in the form of an orifice (2750, 2750') for expanding and cooling the first stream of the first refrigerant into the channels (2755, 2755') by virtue of the Joule-Thompson effect to cool the chiller pump and to cool the second stream of the second refrigerant pumped thereby, and (iii) a system outlet for exhausting the first stream of the first refrigerant from the open loop cooling system and dissipating into the air surrounding the system.
A pharmaceutical composition or a formulation for use for killing or reducing the number of αvβ3 polypeptide-expressing drug resistant cancer cells or tumor cells or drug resistant Cancer Stem Cells (CSCs) in an individual in need thereof, wherein the pharmaceutical composition or a formulation comprises: an integrin αvβ3 antibody capable of specifically binding to an αvβ3 integrin polypeptide expressed on the drug resistant cancer or the drug resistant tumor cell, or on the drug resistant CSC, wherein the antibody has an Fc domain or equivalent domain or moiety capable of binding a macrophage and initiating an antibody-dependent cell-mediated cytotoxicity (ADCC) killing of the cell to which the antibody specifically binds, wherein the antibody is the monoclonal antibody LM609, or a humanized version thereof, and wherein the αvβ3 polypeptide-expressing drug resistant cancer cells, tumor cells or Cancer Stem Cells (CSCs) are resistant to a Receptor Tyrosine Kinase inhibitor. killing or reducing the number of αvβ3 polypeptide-expressing drug resistant cancer cells or tumor cells or drug resistant Cancer Stem Cells (CSCs) in an individual in need thereof, wherein the pharmaceutical composition or a formulation comprises: an integrin αvβ3 antibody capable of specifically binding to an αvβ3 integrin polypeptide expressed on the drug resistant cancer or the drug resistant tumor cell, or on the drug resistant CSC, wherein the antibody has an Fc domain or equivalent domain or moiety capable of binding a macrophage and initiating an antibody-dependent cell-mediated cytotoxicity (ADCC) killing of the cell to which the antibody specifically binds, wherein the antibody is the monoclonal antibody LM609, or a humanized version thereof, and wherein the αvβ3 polypeptide-expressing drug resistant cancer cells, tumor cells or Cancer Stem Cells (CSCs) are resistant to a Receptor Tyrosine Kinase inhibitor. an integrin αvβ3 antibody capable of specifically binding to an αvβ3 integrin polypeptide expressed on the drug resistant cancer or the drug resistant tumor cell, or on the drug resistant CSC, wherein the antibody has an Fc domain or equivalent domain or moiety capable of binding a macrophage and initiating an antibody-dependent cell-mediated cytotoxicity (ADCC) killing of the cell to which the antibody specifically binds, wherein the antibody is the monoclonal antibody LM609, or a humanized version thereof, and wherein the αvβ3 polypeptide-expressing drug resistant cancer cells, tumor cells or Cancer Stem Cells (CSCs) are resistant to a Receptor Tyrosine Kinase inhibitor.
Device for removing and crushing, in particular mulching, weeds, undersown crops or the like between crops planted in rows, with a plurality of tools associated with individual rows of plants, which are mounted on a carrier of an agricultural vehicle, characterized in that at least one tool, which tools each have at least one rotating blade, is mounted on or in a tool holder, which tool holder is connected to a tool carrier via a vertical axis and corresponding extensions and side pendulums provided and is articulated movably on the tool carrier, pivoting of the tool holder being prevented by the side pendulums provided on the tool carrier, which are provided on the tool carrier and which are displaceably guided about a substantially horizontal pivot axis oriented in the direction of travel of the vehicle and in the direction of the rows of plants extending substantially parallel to one another, and wherein the tool holders can be guided by means of lateral guide devices, in particular guide plates, at their outer peripheries in the direction of travel of the vehicle through the plants of the rows of plants.
A method for applying a polymeric composition, discharged in a fluid form from a slot die applicator to a substrate, the slot die applicator including a slot opening, a first lip and a second lip, the slot opening being located between the first lip and the second lip; and the substrate having a first surface disposed opposite of a second surface and an unconstrained caliper, Hs, the method comprising the steps of: - continuously advancing the substrate in a machine direction; - engaging the substrate with a substrate carrier such that the first surface is in face-to-face contact with the substrate carrier and the second surface faces outward from the substrate carrier; - positioning the substrate carrier adjacent the slot die applicator to define a minimum distance, Hg, between the substrate carrier and the first lip and the second lip that is substantially the same or less than the unconstrained caliper, Hs, of the substrate; - advancing the second surface of the substrate past the first lip, the slot opening, and the second lip of the slot die applicator while the first surface of the substrate is disposed on the substrate carrier; and - discharging the polymeric composition from the slot opening of the slot die applicator onto the second surface of the substrate, wherein the polymeric composition comprises at least 50% of one or more polymers by weight of the polymeric composition and has a Tensile Strength at Yield of from 0.5 MPa to 10 MPa, as measured according to the Tensile Strength at Yield Test Method described herein. - continuously advancing the substrate in a machine direction; - engaging the substrate with a substrate carrier such that the first surface is in face-to-face contact with the substrate carrier and the second surface faces outward from the substrate carrier; - positioning the substrate carrier adjacent the slot die applicator to define a minimum distance, Hg, between the substrate carrier and the first lip and the second lip that is substantially the same or less than the unconstrained caliper, Hs, of the substrate; - advancing the second surface of the substrate past the first lip, the slot opening, and the second lip of the slot die applicator while the first surface of the substrate is disposed on the substrate carrier; and - discharging the polymeric composition from the slot opening of the slot die applicator onto the second surface of the substrate,