mhurhangee/ep-ind-claims huggingface dataset:
A hot melt adhesive composition, comprising: 10-95 wt% of a random or homogeneous propylene-based interpolymer having: (i) a comonomer content of at least one of C 2 and C 4-10 α-olefin of 7 wt% to 49 wt% based on the total weight of the propylene-based interpolymer, (ii) an MWD of 4 or less, (iii) a density of 0.90 g/cc or less, and (iv) a Brookfield viscosity of less than 50,000 centipoise; 1-60 wt% of a crystalline block composite comprising: a crystalline ethylene based polymer; a crystalline alpha-olefin based polymer derived from at least one of a C 3-10 α-olefin; and a block copolymer comprising 10-90 wt% of a crystalline ethylene block comprising greater than 90 mol% units derived from ethylene and comprising 10-90 wt% of a crystalline alpha-olefin block comprising greater than 90 mol% units derived from at least one of a C 3-10 α-olefin; Optionally, from greater than zero to 70 wt% tackifier; and Optionally, from greater than zero to 40 wt% of at least one selected from the group of a wax and an oil. 10-95 wt% of a random or homogeneous propylene-based interpolymer having: (i) a comonomer content of at least one of C 2 and C 4-10 α-olefin of 7 wt% to 49 wt% based on the total weight of the propylene-based interpolymer, (ii) an MWD of 4 or less, (iii) a density of 0.90 g/cc or less, and (iv) a Brookfield viscosity of less than 50,000 centipoise; 1-60 wt% of a crystalline block composite comprising: a crystalline ethylene based polymer; a crystalline alpha-olefin based polymer derived from at least one of a C 3-10 α-olefin; and a block copolymer comprising 10-90 wt% of a crystalline ethylene block comprising greater than 90 mol% units derived from ethylene and comprising 10-90 wt% of a crystalline alpha-olefin block comprising greater than 90 mol% units derived from at least one of a C 3-10 α-olefin; a crystalline ethylene based polymer; a crystalline alpha-olefin based polymer derived from at least one of a C 3-10 α-olefin; and a block copolymer comprising 10-90 wt% of a crystalline ethylene block comprising greater than 90 mol% units derived from ethylene and comprising 10-90 wt% of a crystalline alpha-olefin block comprising greater than 90 mol% units derived from at least one of a C 3-10 α-olefin; Optionally, from greater than zero to 70 wt% tackifier; and Optionally, from greater than zero to 40 wt% of at least one selected from the group of a wax and an oil.
Method for treating fumes containing acid pollutants, which include hydrochloric acid (HCl), sulfur dioxide (SO 2) and sulfur trioxide (SO 3 /HSO 4), as well as nitrogen oxides, characterised in that it comprises the following steps: - feeding the fumes to be treated (1, 2) at a first temperature of between 180 °C and 300 °C, preferably between 200 °C and 250 °C, into a first filter-like or electrofilter-like gas-solids separator, in which at least 70 % of the hydrochloric acid, at least 50 % of the sulphur dioxide and at least 60 % of the sulphur trioxide initially present in the fumes to be treated (1, 2) are collected; - mixing said partially treated fumes with a denitrification reagent and feeding the mixture thus obtained into a selective catalytic denitrification reactor; - delivering the denitrified fumes into a cooling unit so as to cool said fumes until they are brought to a second temperature that is strictly lower than said first temperature and which is between 90 and 180 °C, preferably between 120 and 150 °C; - feeding the cooled fumes into a second gas-solids separator, into which a neutrilisation reagent is also fed, in particular calcium hydroxide, magnesia, sodium carbonate or sodium bicarbonate; and - recirculating (via 9) at least a large proportion of the solids collected by the second gas-solids separator to upstream of the first gas-solids separator. - feeding the fumes to be treated (1, 2) at a first temperature of between 180 °C and 300 °C, preferably between 200 °C and 250 °C, into a first filter-like or electrofilter-like gas-solids separator, in which at least 70 % of the hydrochloric acid, at least 50 % of the sulphur dioxide and at least 60 % of the sulphur trioxide initially present in the fumes to be treated (1, 2) are collected; - mixing said partially treated fumes with a denitrification reagent and feeding the mixture thus obtained into a selective catalytic denitrification reactor; - delivering the denitrified fumes into a cooling unit so as to cool said fumes until they are brought to a second temperature that is strictly lower than said first temperature and which is between 90 and 180 °C, preferably between 120 and 150 °C; - feeding the cooled fumes into a second gas-solids separator, into which a neutrilisation reagent is also fed, in particular calcium hydroxide, magnesia, sodium carbonate or sodium bicarbonate; and - recirculating (via 9) at least a large proportion of the solids collected by the second gas-solids separator to upstream of the first gas-solids separator.
A sealing element as a sealing membrane, a sealing film and/or a sealing layer comprising at least: 20-60 wt % of PVC resin, and 20-45 wt % of a biobased plasticizer, 0,5-5 wt % of a stabilizer based on Ca/Zn or Ba/Zn or organic stabilizers, and 0-5wt % of an epoxidized soybean oil (ESBO) as secondary plasticizer, and/or 0-30 wt % of a filler and/or 0-15 wt % of pigments and biocides and up to 10 wt % UV stabilizer in form of alkoxyamine hindered amine stabilizers (NOR-HALS), and UV absorbers, wherein raw materials are used for the production of the biobased plasticizer are made from renewable, carbon based, organic materials. 20-60 wt % of PVC resin, and 20-45 wt % of a biobased plasticizer, 0,5-5 wt % of a stabilizer based on Ca/Zn or Ba/Zn or organic stabilizers, and 0-5wt % of an epoxidized soybean oil (ESBO) as secondary plasticizer, and/or 0-30 wt % of a filler and/or 0-15 wt % of pigments and biocides and up to 10 wt % UV stabilizer in form of alkoxyamine hindered amine stabilizers (NOR-HALS), and UV absorbers, wherein raw materials are used for the production of the biobased plasticizer are made from renewable, carbon based, organic materials.
Amplification oligomers for amplifying a 16S rRNA of Atopobium vaginae or a gene encoding 16S rRNA of A. vaginae, wherein said amplification oligomers are configured to specifically hybridize to said 16S rRNA of A. vaginae or a gene encoding 16S rRNA of A. vaginae, wherein a first member of the amplification oligomers is SEQ ID NO:2 and a second member comprises an oligomer member with a target binding sequence that is SEQ ID NO:27.
Mowing machine intended to be moved in a direction of advance and comprising a chassis and at least one work unit of elongate shape and connected to the chassis by means of a support arm able to pivot with respect to the chassis around an elevation axis, so as to pass the work unit from an operating configuration, in which it is in contact with a soil, to at least one maneuvering configuration, in which the work unit is raised slightly away from the soil, the work unit comprising a cutterbar and a grouping device for the cut product, the cutterbar comprising a plurality of cutting elements driven in rotation and substantially aligned transversally to the direction of advance of the mowing machine in use, the grouping device being located behind the cutterbar along the direction of advance and comprising a grouping auger which is mounted with rotational guidance around an auger axis at least substantially perpendicular to the direction of advance, the coils of the grouping auger being oriented in such a manner that its rotation makes it possible to move the cut products transversally to the direction of advance towards the chassis, the work unit also comprising a primary shaft connected to a drive supply, a primary gearbox to drive the cutting elements and a secondary gearbox to drive the grouping auger, these primary and secondary gearboxes (10, 11) being kinematically connectable to the primary shaft, mowing machine characterized in that the secondary gearbox is located on the side of the inner end of the work unit towards which the cut products are moved by the grouping auger.
Double-flow centrifugal pump, in particular a cooling water pump for a marine diesel engine or ballast water delivery pump, having a pump housing and having a double-flow impeller arranged in a rotationally fixed manner on a rotationally driven shaft, wherein using said impeller a fluid can be suctioned from two axial sides from a negative pressure region and can be delivered in the radial direction into a positive pressure region, wherein the negative pressure region is sealed off with respect to the positive pressure region by means of at least two sealing gaps (19, 20) spaced apart axially from each other, wherein the sealing gaps (19, 20) are formed as axial gaps extending in the circumferential direction and in the radial direction, the gap width (s) of which is less than the radial distance (a) from the impeller to all components mounted with a radial distance to the impeller, characterised in that the centrifugal pump is designed to deliver a volume flow in a range between 500m3/h and 4000m3/h and is produced in a vertical construction type, and in that the shaft is only mounted on one side, and in that the sealing gaps (19,20) are formed axially between the impeller and the stationary pump housing and/or a stationary insert.
A shielded coil assembly, comprising: a coil having an outer surface, an inner surface, an upper end surface and a lower end surface and a first insulating material formed over the outer surface, inner surface, upper end surface and lower end surface of the coil; and a conductive shield comprising a conductive paint applied along the first insulating material so that the conductive paint extends over at least a portion of each of the outer surface, inner surface, upper end surface, and lower end surface of the coil; wherein the conductive paint includes a loop separator region having an interruption in the conductive paint along the outer surface, inner surface, upper end surface, and lower end surface of the coil; and wherein the loop separator region comprises a gap in the conductive paint that extends around the outer surface, inner surface, upper end surface, and lower end surface of the coil to form an open loop in the conductive paint; characterized in that the shielded coil assembly further comprises a semi-conductive paint applied to the first insulating material underneath of the conductive paint. a coil having an outer surface, an inner surface, an upper end surface and a lower end surface and a first insulating material formed over the outer surface, inner surface, upper end surface and lower end surface of the coil; and a conductive shield comprising a conductive paint applied along the first insulating material so that the conductive paint extends over at least a portion of each of the outer surface, inner surface, upper end surface, and lower end surface of the coil; wherein the conductive paint includes a loop separator region having an interruption in the conductive paint along the outer surface, inner surface, upper end surface, and lower end surface of the coil; and wherein the loop separator region comprises a gap in the conductive paint that extends around the outer surface, inner surface, upper end surface, and lower end surface of the coil to form an open loop in the conductive paint; characterized in that wherein the conductive paint includes a loop separator region having an interruption in the conductive paint along the outer surface, inner surface, upper end surface, and lower end surface of the coil; and wherein the loop separator region comprises a gap in the conductive paint that extends around the outer surface, inner surface, upper end surface, and lower end surface of the coil to form an open loop in the conductive paint; characterized in that the shielded coil assembly further comprises a semi-conductive paint applied to the first insulating material underneath of the conductive paint.
Process of use in isolating rare earth metals and ancillary metal element(s) distinct from rare earth metals present in the magnetic phase of magnets or derived products, comprising at least the stages consisting in: (i) having the material forming said magnetic phase available in the form of a demagnetized powder, with a mean particle size of less than or equal to 700 μm, devoid of contamination with nonconstituent particles of said magnetic phase; (ii) dissolving said powder from stage (i) in an acid medium supplemented with at least one oxidizing agent capable of adjusting the ancillary metal element(s) to an oxidation state compatible with their consecutive precipitation in stage (iii), in the presence of hydroxide ions, at a pH strictly of less than 7; (iii) precipitating the ancillary metal element(s) in the hydroxide state via the addition, to said solution obtained on conclusion of stage (ii), of an effective amount of at least one hydroxylated base, under pH conditions favorable to the maintenance of the rare earth metal elements in the dissolved form; (iv) isolating the metal hydroxide precipitate formed on conclusion of stage (iii) and, if appropriate, recovering it; (v) precipitating the rare earth metal elements in the oxalate state from the solution depleted in, indeed even devoid of, ancillary metal element (s) and obtained on conclusion of stage (iv) via the addition, to said solution, of an effective amount of oxalic acid; and (vi) recovering said rare earth metals in the form of a precipitate of rare earth metal oxalate. (i) having the material forming said magnetic phase available in the form of a demagnetized powder, with a mean particle size of less than or equal to 700 μm, devoid of contamination with nonconstituent particles of said magnetic phase; (ii) dissolving said powder from stage (i) in an acid medium supplemented with at least one oxidizing agent capable of adjusting the ancillary metal element(s) to an oxidation state compatible with their consecutive precipitation in stage (iii), in the presence of hydroxide ions, at a pH strictly of less than 7; (iii) precipitating the ancillary metal element(s) in the hydroxide state via the addition, to said solution obtained on conclusion of stage (ii), of an effective amount of at least one hydroxylated base, under pH conditions favorable to the maintenance of the rare earth metal elements in the dissolved form; (iv) isolating the metal hydroxide precipitate formed on conclusion of stage (iii) and, if appropriate, recovering it; (v) precipitating the rare earth metal elements in the oxalate state from the solution depleted in, indeed even devoid of, ancillary metal element (s) and obtained on conclusion of stage (iv) via the addition, to said solution, of an effective amount of oxalic acid; and (vi) recovering said rare earth metals in the form of a precipitate of rare earth metal oxalate.
An extended finger flange for a syringe system, said syringe system comprising a needle guard having a shield and a body, the shield comprising a pair of finger flanges having lateral edges, lateral ends, distal surfaces providing a surface area for the end user's fingers to grip and secure the syringe system, a proximal face and a distal face, the body being configured to receive a syringe, the extended finger flange being configured to be removably coupled with the needle guard and comprising: a pair of lateral flaps configured to be engaged by an end user's fingers, the lateral flaps increasing the surface area available for the end user's fingers; and a central attachment area configured to engage the shield of the needle guard, characterized in that the central attachment area of the extended finger flange comprises one or more internal snaps located at a distance from the proximal face of the extended finger flange and at a distance from the distal face of the extended finger flange and configured to press fit against the finger flanges of the shield when the extended finger flange is fully inserted onto the needle guard, so that said snaps press against the lateral edges of the finger flanges but not against the lateral ends. a pair of lateral flaps configured to be engaged by an end user's fingers, the lateral flaps increasing the surface area available for the end user's fingers; and a central attachment area configured to engage the shield of the needle guard, characterized in that the central attachment area of the extended finger flange comprises one or more internal snaps located at a distance from the proximal face of the extended finger flange and at a distance from the distal face of the extended finger flange and configured to press fit against the finger flanges of the shield when the extended finger flange is fully inserted onto the needle guard, so that said snaps press against the lateral edges of the finger flanges but not against the lateral ends.
A memory controller comprising: a first interface for receiving memory access requests generated by one or more computing resources executing one or more applications; a second interface for sending the memory access requests to a memory device comprising a plurality of ranks, each rank comprising a plurality of banks; and control logic, wherein the control logic is configured to: receive information identifying the one or more applications; characterized in that the control logic is further configured to: predict a first latency between accesses of a given rank of the plurality of ranks based at least upon the received information; and determine whether to perform an all-bank refresh operation for the given rank or perform a per-bank refresh operation on a given bank of the plurality of banks in the given rank based at least upon comparing the first latency and a second latency of an all-bank refresh operation; in response to receiving an indication to start a refresh interval for the given rank: select one or more refresh operations based upon the first latency; and perform the selected one or more refresh operations on the given rank. a first interface for receiving memory access requests generated by one or more computing resources executing one or more applications; a second interface for sending the memory access requests to a memory device comprising a plurality of ranks, each rank comprising a plurality of banks; and control logic, wherein the control logic is configured to: receive information identifying the one or more applications; predict a first latency between accesses of a given rank of the plurality of ranks based at least upon the received information; and determine whether to perform an all-bank refresh operation for the given rank or perform a per-bank refresh operation on a given bank of the plurality of banks in the given rank based at least upon comparing the first latency and a second latency of an all-bank refresh operation; in response to receiving an indication to start a refresh interval for the given rank: select one or more refresh operations based upon the first latency; and perform the selected one or more refresh operations on the given rank. select one or more refresh operations based upon the first latency; and perform the selected one or more refresh operations on the given rank.
Shower tray comprising at least one trap body with at least one main draining point coupled to a draining body, a conduit formed by mortar ramps, arranged on top of the mortar, which surround the draining body, a water-proof sheet affixed to the surface of the set of mortar ramps and over the conduit, wherein the water-proof sheet comprises a connector held in the mouth of the main drainage point of the trap body, and into which the outlet tube of the drain body fits wherein the trap body is embedded in mortar and the connector comprises at least one secondary draining channel for draining the water that filters through a flooring of the shower tray over the water-proof sheet the secondary draining channel starts at several holes provided in the surface of the connector, and runs through the connector until opening onto the main drainage point; wherein the draining channel comprises at least one piece that floats in water per hole, to block the inlet holes of the secondary draining channel, when the main drain overflows.
Electrical position-detecting apparatus for mounting on a valve including a housing and an actuating means movably arranged therein, which is acted upon with a spring force by means of a spring arranged on the housing so that, when it is mounted on a valve, it is pressed against an actuator of the valve and can follow its movements within the valve, wherein a position detection device is provided, which detects the position of the actuating means, wherein the position detection device is so constructed that the position of the actuating means is contactlessly determined with it and the spring is arranged in the housing, characterised in that the housing includes a housing lower portion, which can be secured to a valve and on which a housing upper portion is arranged, preferably rotatably, wherein the position detection device is arranged in the housing upper portion and the housing upper portion includes a support plate with a control means enclosure and an outer housing, wherein the actuating means and the spring are arranged within the control means enclosure.
Computer-implemented method for monitoring the function of a safety monitoring system of a control unit of an actuator system of a motor vehicle, wherein it is checked by means of the function monitoring whether the safety monitoring is performed faultlessly, wherein the safety monitoring is carried out by a first monitoring entity and the function monitoring is carried out by a second monitoring entity, wherein the first monitoring entity sends a result of the safety monitoring as an information item to the second monitoring entity at defined time intervals, wherein the first monitoring entity and the second monitoring entity are free of a common interface, wherein the information item is received by the second monitoring entity by utilizing an interface between the second monitoring entity and the control unit, wherein the information item is coded in a format which cannot be interpreted by the control unit.