mhurhangee/ep-ind-claims huggingface dataset:
A process for the regeneration of loaded ion-exchange resin comprising: (a) providing loaded resin for regeneration; (b) providing first stage and third stage regenerant suitable for regenerating loaded resin, wherein the third stage regenerant is more concentrated than the first stage regenerant; (c) providing a plurality of regeneration vessels; (d) filling a regeneration vessel with a desired amount of the loaded resin before filling another regeneration vessel; (e) once a regeneration vessel has been filled, contacting the loaded resin within the vessel with first stage regenerant in a plug flow to provide a first stage regenerated resin; (f) contacting the first stage regenerated resin with third stage regenerant in a plug flow to provide regenerated resin; (g) removing and collecting third stage regenerant from a vessel containing regenerated resin and adding the collected regenerant to the first stage regenerant. (a) providing loaded resin for regeneration; (b) providing first stage and third stage regenerant suitable for regenerating loaded resin, wherein the third stage regenerant is more concentrated than the first stage regenerant; (c) providing a plurality of regeneration vessels; (d) filling a regeneration vessel with a desired amount of the loaded resin before filling another regeneration vessel; (e) once a regeneration vessel has been filled, contacting the loaded resin within the vessel with first stage regenerant in a plug flow to provide a first stage regenerated resin; (f) contacting the first stage regenerated resin with third stage regenerant in a plug flow to provide regenerated resin; (g) removing and collecting third stage regenerant from a vessel containing regenerated resin and adding the collected regenerant to the first stage regenerant.
An air compression and expansion system operable in a compression mode and an expansion mode, the air compression and expansion system comprising: a motor-generator unit; a single drive shaft connected to the motor-generator unit and configured to transmit rotational power to and from the motor-generator unit; a compressor system selectively coupleable to the single drive shaft and positioned thereabout; a turbine system selectively coupleable to the single drive shaft and positioned thereabout, the turbine system positioned with the compressor system on a common side of the motor-generator unit; a compressor clutch arranged coaxially about the single drive shaft and attached to the compressor system, the compressor clutch configured to selectively couple and decouple the compressor system to the single drive shaft; and a turbine clutch arranged coaxially about the single drive shaft and attached to the turbine system, the turbine clutch configured to selectively couple and decouple the turbine system to the single drive shaft; characterised in that the compression system comprises: a low pressure compressor; and a high pressure compressor positioned adjacent the low pressure compressor; wherein the low pressure compressor and the high pressure compressor are arranged on the drive shaft to have opposite flow directions; or in that the turbine system comprises: a low pressure turbine; and a high pressure turbine positioned adjacent the low pressure turbine; wherein the low pressure turbine and the high pressure turbine are arranged on the drive shaft to have opposite flow directions. a motor-generator unit; a single drive shaft connected to the motor-generator unit and configured to transmit rotational power to and from the motor-generator unit; a compressor system selectively coupleable to the single drive shaft and positioned thereabout; a turbine system selectively coupleable to the single drive shaft and positioned thereabout, the turbine system positioned with the compressor system on a common side of the motor-generator unit; a compressor clutch arranged coaxially about the single drive shaft and attached to the compressor system, the compressor clutch configured to selectively couple and decouple the compressor system to the single drive shaft; and a turbine clutch arranged coaxially about the single drive shaft and attached to the turbine system, the turbine clutch configured to selectively couple and decouple the turbine system to the single drive shaft; a low pressure compressor; and a high pressure compressor positioned adjacent the low pressure compressor; a low pressure turbine; and a high pressure turbine positioned adjacent the low pressure turbine;
A compounding system comprising: a circular, rotatable transfer module having an array of transfer cartridges, each transfer cartridge having an access device coupled to a first pump of an array of first pumps; a circular, rotatable medication module having an array of medication containers, wherein the access device of a first transfer cartridge is configured to access the one or more medication containers; a diluent module having one or more diluent containers having a diluent therein, the diluent module comprising a second pump; and a circular, rotatable filling module that receives medication from the first pump and diluent from the second pump to create a compounded medication comprising at least one medication and diluent, the filling module having a port configured (i) to be coupled to a compounded medication container and (ii) to direct the compounded medication to the compounded medication container through the port, wherein the one or more transfer cartridges is disposed between the medication module and the first pump, wherein a proximal portion of the access device is configured to extend into a fluid port in the one or more medication containers by lowering the one or more medication containers, and a distal portion of the access device is configured to extend into the first pump by further lowering the one or more medication containers and the access device, and wherein the first transfer cartridge, the one or more medication containers, and the first pump are aligned circumferentially along a common axis of rotation. a circular, rotatable transfer module having an array of transfer cartridges, each transfer cartridge having an access device coupled to a first pump of an array of first pumps; a circular, rotatable medication module having an array of medication containers, wherein the access device of a first transfer cartridge is configured to access the one or more medication containers; a diluent module having one or more diluent containers having a diluent therein, the diluent module comprising a second pump; and a circular, rotatable filling module that receives medication from the first pump and diluent from the second pump to create a compounded medication comprising at least one medication and diluent, the filling module having a port configured (i) to be coupled to a compounded medication container and (ii) to direct the compounded medication to the compounded medication container through the port, wherein the one or more transfer cartridges is disposed between the medication module and the first pump, wherein a proximal portion of the access device is configured to extend into a fluid port in the one or more medication containers by lowering the one or more medication containers, and a distal portion of the access device is configured to extend into the first pump by further lowering the one or more medication containers and the access device, and wherein the first transfer cartridge, the one or more medication containers, and the first pump are aligned circumferentially along a common axis of rotation.
A method of recovering unconventional hydrocarbons in an underground formation, wherein said unconventional hydrocarbons are recovered by fracturing in said underground formation, at least one noble gas being present in said underground formation, wherein said underground formation is monitored by carrying out the following steps: a) selecting a diffusion model for said noble gas and a diffusion model for a hydrocarbon to be recovered, each model describing the concentration evolution as a function of time, of depth and of a diffusion coefficient, b) prior to said hydrocarbon recovery, taking at least a first sample of a fluid present in a zone referred to as subsoil monitoring zone located above said underground formation, and measuring the composition of at least one noble gas within said first sample, c) during and/or after said hydrocarbon recovery, taking at least a second sample of a fluid present in said monitoring zone, and measuring a concentration of said noble gas within said second sample, d) repeating step c) at different times, e) when said concentration of said noble gas increases, modifying said effective diffusion coefficient of the noble gas diffusion model, so that the noble gas diffusion model is coherent with said measurements, and deducing a ratio between said diffusion coefficient and said modified diffusion coefficient, and f) applying said ratio to the diffusion model of said hydrocarbon to be recovered, from which the amount of said hydrocarbon to be recovered present in said monitoring zone at the time t is determined. a) selecting a diffusion model for said noble gas and a diffusion model for a hydrocarbon to be recovered, each model describing the concentration evolution as a function of time, of depth and of a diffusion coefficient, b) prior to said hydrocarbon recovery, taking at least a first sample of a fluid present in a zone referred to as subsoil monitoring zone located above said underground formation, and measuring the composition of at least one noble gas within said first sample, c) during and/or after said hydrocarbon recovery, taking at least a second sample of a fluid present in said monitoring zone, and measuring a concentration of said noble gas within said second sample, d) repeating step c) at different times, e) when said concentration of said noble gas increases, modifying said effective diffusion coefficient of the noble gas diffusion model, so that the noble gas diffusion model is coherent with said measurements, and deducing a ratio between said diffusion coefficient and said modified diffusion coefficient, and f) applying said ratio to the diffusion model of said hydrocarbon to be recovered, from which the amount of said hydrocarbon to be recovered present in said monitoring zone at the time t is determined.
A circuit board comprising an aluminum nitride substrate, having aluminum nitride crystal grains with an average grain size of 2 to 5 μm and a thermal conductivity of at least 170 W/m·K, wherein the aluminum nitride substrate does not comprise a dendritic grain boundary phase and has a breakdown voltage of at least 30 kV/mm at 400 °C.
A coolant-circulating component, characterized in that said component is prepared from a molding composition, said molding composition comprising: A. from 20 to 85% by weight of a polycaprolactam; B. from 5 to 35% by weight of a polypropylene; and C. from 5 to 65% by weight of a reinforcing material; characterized in that said molding composition further includes hydrolysis stabilizers in an amount of 0.2 to 3% by weight, wherein said hydrolysis stabilizers are selected from the group consisting of carbodiimides, and primary or secondary amines, and wherein each of the weight percentages is based on the total weight of the molding composition. A. from 20 to 85% by weight of a polycaprolactam; B. from 5 to 35% by weight of a polypropylene; and C. from 5 to 65% by weight of a reinforcing material; characterized in that said molding composition further includes hydrolysis stabilizers in an amount of 0.2 to 3% by weight, wherein said hydrolysis stabilizers are selected from the group consisting of carbodiimides, and primary or secondary amines, and wherein each of the weight percentages is based on the total weight of the molding composition.
Cable having a bundle of pultruded fiber-reinforced plastic profiles, wherein the bundle is formed in cross-section as a core and at least one annulus (14, 16) surrounding the core and having a plurality of annulus-sector-shaped plastic profiles, characterized in that the core is formed from a plurality of plastic profiles which are sector-shaped in cross-section.
A portable tubular chromatography assembly having a segmented body with first and second ends (21a, 21b) covered by first and second end caps (24, 48), respectively, the body being formed of - a removable, upstream tube forming a slurry chamber and - a downstream tube forming a column, wherein said tubes (122a, 122b) are releasably joined by a removable V-Band clamp at the exterior of the body, the assembly comprising: a bed of chromatographic media placed between a first and second frit (30, 42) located inside the column; a piston abutting the second frit and exerting a predetermined pressure on the bed; an adjustable locking mechanism for fastening the piston to column at a desired position and allowing the removal of the slurry chamber, said mechanism comprising a threaded collet and a locking sleeve engaging the collet; and having a threaded adjuster interposed between a support of the adjustable locking mechanism fastened to the body and the piston, such that the rotation of the threaded adjuster increases or decreases the force the piston exerts on the bed. - a removable, upstream tube forming a slurry chamber and - a downstream tube forming a column, a bed of chromatographic media placed between a first and second frit (30, 42) located inside the column; a piston abutting the second frit and exerting a predetermined pressure on the bed; an adjustable locking mechanism for fastening the piston to column at a desired position and allowing the removal of the slurry chamber, said mechanism comprising a threaded collet and a locking sleeve engaging the collet; and having a threaded adjuster interposed between a support of the adjustable locking mechanism fastened to the body and the piston, such that the rotation of the threaded adjuster increases or decreases the force the piston exerts on the bed.
A luminaire comprising: a charging base comprising a base platform, a post, and branches, one edge of said post being integrated with or attached to said base platform, each branch having one edge integrated with or attached to said post and a second edge comprising a power connector, and a power cable connectable to an external power source and each power connector; and a plurality of rechargeable illuminating personal ornaments, connected to the charging base, each having a shell, a light source attached to the shell, a rechargeable power source (140, 333), located in the shell and connected to the light source, a corresponding power connector, defining an opening in the shell and coupled to the rechargeable power source (140, 333), wherein the power connector of the charging base is coupled to each corresponding power connector of each rechargeable illuminating personal ornament. a charging base comprising a base platform, a post, and branches, one edge of said post being integrated with or attached to said base platform, each branch having one edge integrated with or attached to said post and a second edge comprising a power connector, and a power cable connectable to an external power source and each power connector; and a plurality of rechargeable illuminating personal ornaments, connected to the charging base, each having a shell, a light source attached to the shell, a rechargeable power source (140, 333), located in the shell and connected to the light source, a corresponding power connector, defining an opening in the shell and coupled to the rechargeable power source (140, 333), wherein the power connector of the charging base is coupled to each corresponding power connector of each rechargeable illuminating personal ornament.
A monoclonal antibody, or one of its functional fragments, characterized in that it is a chimeric or humanized antibody, and that it comprises: - a light chain comprising the three CDR regions of sequences SEQ ID Nos. 9, 10 and 11; and - a heavy chain comprising the three CDR regions of sequences SEQ ID Nos. 12, 13 and 14. - a light chain comprising the three CDR regions of sequences SEQ ID Nos. 9, 10 and 11; and - a heavy chain comprising the three CDR regions of sequences SEQ ID Nos. 12, 13 and 14.
A cyclone separation device comprising: a swirl chamber for swirling air containing dust along a side wall therein in a spiral manner around a central axis to separate dust from the air containing dust; a first dust collection chamber communicating with an inside of the swirl chamber through a first opening formed in the side wall of the swirl chamber; a second dust collection chamber communicating with the inside of the swirl chamber through a second opening formed on a downstream side of the first opening in the swirl chamber; a discharge pipe communicating with a discharge port for discharging air in the swirl chamber; a plurality of inlets (21, 25) through which the air containing dust flows into the swirl chamber, wherein the plurality of inlets (21, 25) include a main inlet having a maximum opening area, and at least one secondary inlet other than the main inlet, and a main inlet pipe connected to the main inlet; a secondary inlet pipe connected to the secondary inlet; and a bypass air trunk communicating with the main inlet pipe through a main communication port provided in a wall portion of the main inlet pipe, the bypass air trunk communicating with the secondary inlet pipe through a secondary communication port,wherein one end of the main inlet pipe is connected to the main inlet and the other end of the main inlet pipe is connected to a single unit side inlet for introducing the air containing dust into the swirl chamber, and wherein the first opening is placed on a downstream side of the main inlet and the secondary inlet. a swirl chamber for swirling air containing dust along a side wall therein in a spiral manner around a central axis to separate dust from the air containing dust; a first dust collection chamber communicating with an inside of the swirl chamber through a first opening formed in the side wall of the swirl chamber; a second dust collection chamber communicating with the inside of the swirl chamber through a second opening formed on a downstream side of the first opening in the swirl chamber; a discharge pipe communicating with a discharge port for discharging air in the swirl chamber; a plurality of inlets (21, 25) through which the air containing dust flows into the swirl chamber, wherein the plurality of inlets (21, 25) include a main inlet having a maximum opening area, and at least one secondary inlet other than the main inlet, and a main inlet pipe connected to the main inlet; a secondary inlet pipe connected to the secondary inlet; and a bypass air trunk communicating with the main inlet pipe through a main communication port provided in a wall portion of the main inlet pipe, the bypass air trunk communicating with the secondary inlet pipe through a secondary communication port,wherein one end of the main inlet pipe is connected to the main inlet and the other end of the main inlet pipe is connected to a single unit side inlet for introducing the air containing dust into the swirl chamber, and wherein the first opening is placed on a downstream side of the main inlet and the secondary inlet.
An oral tobacco composition, wherein a molar ratio (A/N ratio) of total content of one or more acids selected from the group consisting of citric acid, malic acid, succinic acid, acetic acid and formic acid with respect to content of nicotine is 0.20 or lower.
Busbar, in particular a laminated busbar, configured for mounting an electronic component on the busbar, in particular a passive electronic component, wherein the busbar comprises at least one plug-in region configured for inserting a contact element of the electronic component, in particular a pin of the electronic component, into the busbar, wherein the busbar comprises a first conductive layer, wherein said first conductive layer which is assigned to the plug-in region extends in a first plane and the plug-in region extends in a second plane, wherein the first plane and the second plane are spaced from each other in a direction extending perpendicular to the first plane and the second plane for forming a recessed plug-in region, characterized in that the plug-in region is at least partially surrounded by at least one recess, wherein the recess extends between the first plane and the second plane.
A cathode for a lithium-sulfur secondary battery, the cathode containing sulfur and a solid superacid, wherein the solid superacid includes sulfated zirconia, sulfated titanium dioxide, sulfated tin dioxide, or sulfated aluminum oxide.
A sport ball comprising: a casing having a plurality of panels (226, 227, 228, 229) forming an external exposed surface of the sport ball; wherein adjacent panels (226, 227, 228, 229) abut one another at seams (223, 224, 225); wherein a substantial majority of the seams (223, 224, 225) are each formed by a reinforcing strip (777, 779, 780) affixed to a first internal surface of a first panel, to a second internal surface of a second panel (227, 228, 229) and to a flange portion resulting by flanges extending from a first edge of the first panel and a second edge of the second panel (227, 228, 229), the reinforcing strip (777, 779, 780) extending across the interface between the first panel and the second panel (227, 228, 229), characterized in that the reinforcing strips (777, 779, 780) overlap one another at the intersection of the seams (223,224,225). a casing having a plurality of panels (226, 227, 228, 229) forming an external exposed surface of the sport ball; wherein adjacent panels (226, 227, 228, 229) abut one another at seams (223, 224, 225); wherein a substantial majority of the seams (223, 224, 225) are each formed by a reinforcing strip (777, 779, 780) affixed to a first internal surface of a first panel, to a second internal surface of a second panel (227, 228, 229) and to a flange portion resulting by flanges extending from a first edge of the first panel and a second edge of the second panel (227, 228, 229), the reinforcing strip (777, 779, 780) extending across the interface between the first panel and the second panel (227, 228, 229), characterized in that the reinforcing strips (777, 779, 780) overlap one another at the intersection of the seams (223,224,225).
A power transfer device for transferring external power to a rotary body of the power transfer device, wherein the rotary body is coupled to one side of a main body of the power transfer device, comprising a push unit installed in the main body and provided with at least one pusher protruding toward the rotary body, characterized in that said power transfer device comprises: - at least one double-action interlocking cylinder mounted to a rear surface of the rotary body and provided with a rod protruding toward the main body; - a bearing capable of transferring a load in the axial opposite directions and disposed between the pusher of the push unit and the rod of the interlocking cylinder and configured to allow relative rotation of the pusher and the rod and to transfer power between the pusher and the rod. - at least one double-action interlocking cylinder mounted to a rear surface of the rotary body and provided with a rod protruding toward the main body; - a bearing capable of transferring a load in the axial opposite directions and disposed between the pusher of the push unit and the rod of the interlocking cylinder and configured to allow relative rotation of the pusher and the rod and to transfer power between the pusher and the rod.