mhurhangee/ep-ind-claims huggingface dataset:
A fluidizable, attrition resistant sorbent for removing at least one reduced sulfur species from a feed stream comprising: spheroidal particles, said particles comprising at least 75 wt% of an active zinc component consisting essentially of a zinc oxide phase and a zinc aluminate phase, each of said phases having a crystallite size of less than 500 Angstroms as determined by x-ray diffraction line broadening analysis, said active zinc component having a total zinc oxide content, calculated based on the combined zinc oxide of said zinc oxide phase and said zinc aluminate phase, of from 50 wt%, to 80 wt%, based on the weight of said active zinc component. spheroidal particles, said particles comprising at least 75 wt% of an active zinc component consisting essentially of a zinc oxide phase and a zinc aluminate phase, each of said phases having a crystallite size of less than 500 Angstroms as determined by x-ray diffraction line broadening analysis, said active zinc component having a total zinc oxide content, calculated based on the combined zinc oxide of said zinc oxide phase and said zinc aluminate phase, of from 50 wt%, to 80 wt%, based on the weight of said active zinc component.
Fluorescent lamp for plant lighting, having a tubular discharge vessel, two electrodes melted into the ends of the discharge vessels so as to be gas-tight, a filling comprising at least one noble gas and mercury as well as a phosphor coating on the inner wall of the vessel, wherein the phosphor coating consists of a europium-doped barium magnesium aluminate phosphor of the BaMgAl 10 O 17:Eu type and a cerium- and manganese-doped gadolinium zinc magnesium pentaborate phosphor of the Gd(Zn, Mg)B 5 O 10:Ce,Mn type, and, for generating light with an optimally high light output and a colour temperature between 4,000 and 5,500 K, an antimony-and manganese-doped calcium halophosphate phosphor of the Ca 10 (PO 4) 6 (F, Cl) 2:Sb,Mn type.
A method of synthesizing a mixture of glucooligosaccharides by disproportionating malto-oligosaccharides like substrates and introducing α-(1→6) glycosidic linkages and in addition synthesizing IMO, glucooligo-saccharides with α-(1→6) glycosidic linkages, wherein said method comprises the steps of: (i) contacting a MOS, starch, amylose, amylopectin, or maltodextrin substrate source with an isolated, recombinantly expressed GH70 subfamily 4, α-glucanotransferase, or an active fragment thereof, and (ii) reacting the α-glucanotransferase, or active fragment thereof, with the MOS, starch, amylose, amylopectin, or maltodextrin source at pH 3-10 and at 30°C -70°C to produce the mixture of glucooligosaccharides, wherein said α-glucanotransferase is from Exiguobacterium acetylicum (a-GT-E), Bacillus coagulans 2-6 (α-GT-S) or Bacillus coagulans 2022696 [DuPont Culture collection](α-GT-L), and wherein said α-glucanotransferase comprises a polypeptide consisting of amino acids AA31-731[FAPS....KAPV] of SEQ ID NO:2, AA33-736 [YTSG....AATP] of SEQ ID NO:7, AA22-726 [YTSG....AATP] of SEQ ID NO:11, or a polypeptide having at least 60% sequence identity thereto, or an active fragment thereof, wherein the active fragment is capable of disproportionating malto-oligosaccharides and introducing α-(1→6) glycosidic linkages. (i) contacting a MOS, starch, amylose, amylopectin, or maltodextrin substrate source with an isolated, recombinantly expressed GH70 subfamily 4, α-glucanotransferase, or an active fragment thereof, and (ii) reacting the α-glucanotransferase, or active fragment thereof, with the MOS, starch, amylose, amylopectin, or maltodextrin source at pH 3-10 and at 30°C -70°C to produce the mixture of glucooligosaccharides, wherein said α-glucanotransferase is from Exiguobacterium acetylicum (a-GT-E), Bacillus coagulans 2-6 (α-GT-S) or Bacillus coagulans 2022696 [DuPont Culture collection](α-GT-L), and wherein said α-glucanotransferase comprises a polypeptide consisting of amino acids AA31-731[FAPS....KAPV] of SEQ ID NO:2, AA33-736 [YTSG....AATP] of SEQ ID NO:7, AA22-726 [YTSG....AATP] of SEQ ID NO:11, or a polypeptide having at least 60% sequence identity thereto, or an active fragment thereof, wherein the active fragment is capable of disproportionating malto-oligosaccharides and introducing α-(1→6) glycosidic linkages.
A method of operating a Fourier Transform mass analyzer having a plurality of selectable resolving power settings, the method comprising: storing an optimized voltage value in association with each one of the plurality of selectable resolving power settings, wherein the optimized voltage values for at least two of the selectable resolving power settings differ from one another and wherein each optimized voltage value maximizes the peak coalescence threshold for the associated selectable resolving power setting; selecting one of the plurality of selectable resolving power settings; in dependence upon selecting the one of the plurality of selectable resolving power settings, retrieving the optimized voltage value that is stored in association therewith; controlling at least one voltage setting of the FT mass analyzer based on the retrieved optimized voltage value; and performing an analytical scan, at the selected one of the plurality of selectable resolving power settings, for a population of ions within the FT mass analyzer. storing an optimized voltage value in association with each one of the plurality of selectable resolving power settings, wherein the optimized voltage values for at least two of the selectable resolving power settings differ from one another and wherein each optimized voltage value maximizes the peak coalescence threshold for the associated selectable resolving power setting; selecting one of the plurality of selectable resolving power settings; in dependence upon selecting the one of the plurality of selectable resolving power settings, retrieving the optimized voltage value that is stored in association therewith; controlling at least one voltage setting of the FT mass analyzer based on the retrieved optimized voltage value; and performing an analytical scan, at the selected one of the plurality of selectable resolving power settings, for a population of ions within the FT mass analyzer.
A spacer (30; 130) adapted for implantation onto the anterior aspect of the tibia, under the patellar ligament (5; 35), proximally to its tibial attachment, whereby the spacer extends anteriorly from the tibia and holds the ligament away therefrom to alter the angle between the patellar ligament and the tibial plateau, the spacer having a bone facing surface and a surface facing the patellar ligament, characterized in that the surface (42; 131) of the spacer facing the patellar ligament is adjacent to the bone facing surface along two parallel sides and is continuously rounded in a direction perpendicular to the parallel sides and parallel to an axis of the ligament.
Monitor for a brake device of a railway vehicle, wherein the brake device comprises at least one pressure-actuated brake actuator, from which a control valve device is connected upstream, wherein the monitor is implemented for the purpose of carrying out an estimation of the actuator pressure applied to the brake actuator based on pressure data and activation data, wherein the pressure data represent at least one pressure present upstream of the control valve device and the activation data represent an activation of the control valve device.
Method for treating biomass, comprising: Feeding the biomass and an amount of water as impregnation liquid into a first reactor unit such that the biomass is impregnated using the amount of water while the biomass is transferred through the first reactor unit by a conveyor means (11, S10); Transferring the impregnated biomass from the first reactor unit to a separation unit in which at least a part of the amount of water used for impregnation can be separated from the impregnated biomass (22, S20); Transferring the impregnated biomass from the separation unit into a second reactor unit in which the impregnated biomass is subjected to a predetermined pressure; Controlling the predetermined pressure within the second reactor unit using a plug screw or a rotary valve, wherein the plug screw or the rotary valve is arranged between the separation unit and the second reactor unit (30, S23); wherein the plug screw or the rotary valve is adapted to increase the pressure in the second reactor unit compared to the pressure in the separation unit. Feeding the biomass and an amount of water as impregnation liquid into a first reactor unit such that the biomass is impregnated using the amount of water while the biomass is transferred through the first reactor unit by a conveyor means (11, S10); Transferring the impregnated biomass from the first reactor unit to a separation unit in which at least a part of the amount of water used for impregnation can be separated from the impregnated biomass (22, S20); Transferring the impregnated biomass from the separation unit into a second reactor unit in which the impregnated biomass is subjected to a predetermined pressure; Controlling the predetermined pressure within the second reactor unit using a plug screw or a rotary valve, wherein the plug screw or the rotary valve is arranged between the separation unit and the second reactor unit (30, S23); wherein the plug screw or the rotary valve is adapted to increase the pressure in the second reactor unit compared to the pressure in the separation unit.
A method comprising: providing a wellbore having a cased section and an uncased section, wherein the wellbore contains water-based drilling fluids containing drilled solids; introducing a first water-based displacement fluid comprising a shale inhibitor into the wellbore to displace the water-based drilling fluids and drilled solids from the uncased section of the wellbore; then introducing a second water-based displacement fluid into the wellbore to displace fluids within the cased section of the wellbore; then running a sand control screen assembly to a selected depth within the uncased section of the wellbore to facilitate a gravel packing operation; and, then introducing a gravel pack slurry containing gravel and a viscosified carrier fluid into the wellbore to facilitate gravel packing of the uncased section. providing a wellbore having a cased section and an uncased section, wherein the wellbore contains water-based drilling fluids containing drilled solids; introducing a first water-based displacement fluid comprising a shale inhibitor into the wellbore to displace the water-based drilling fluids and drilled solids from the uncased section of the wellbore; then introducing a second water-based displacement fluid into the wellbore to displace fluids within the cased section of the wellbore; then running a sand control screen assembly to a selected depth within the uncased section of the wellbore to facilitate a gravel packing operation; and, then introducing a gravel pack slurry containing gravel and a viscosified carrier fluid into the wellbore to facilitate gravel packing of the uncased section.
A vehicle bumper integrally comprising metal beam-extension portions being a part to be fixed to a vehicle body on both right-and-left end sides of a metal bumper-beam portion, wherein the metal bumper-beam portion and the beam-extension portion include a vertical wall portion (B1, E1) that faces a vehicle body side; an upper wall portion (B2, E2) and a lower wall portion (B3, E3) that extend respectively from an upper end and a lower end of the vertical wall portion (B1, E1) to the vehicle body side; and a resin reinforcing rib (Br, Er) is joined to inner surfaces of a void (Bk,) formed of the vertical wall portion (B1, E1), the upper wall portion (B2, E2), and the lower wall portion (B3, E3); characterized in that an extension dimension of the upper wall portion (B2, E2) and the lower wall portion (B3, E3) of the metal beam-extension portions is larger than an extension dimension of the upper wall portion (B2, E2) and the lower wall portion (B3, E3) in the metal bumper-beam portion; the resin reinforcing rib (Br, Er) in the metal beam-extension portions is joined to the vertical wall portion (B1, E1), the upper wall portion (B2, B3), and the lowerwall portion (B3, E3) of the metal beam-extension portions; and stiffness of the metal bumper-beam portion is higher than stiffness of the metal beam-extension portions. the metal bumper-beam portion and the beam-extension portion include a vertical wall portion (B1, E1) that faces a vehicle body side; an upper wall portion (B2, E2) and a lower wall portion (B3, E3) that extend respectively from an upper end and a lower end of the vertical wall portion (B1, E1) to the vehicle body side; and a resin reinforcing rib (Br, Er) is joined to inner surfaces of a void (Bk,) formed of the vertical wall portion (B1, E1), the upper wall portion (B2, E2), and the lower wall portion (B3, E3); characterized in that an extension dimension of the upper wall portion (B2, E2) and the lower wall portion (B3, E3) of the metal beam-extension portions is larger than an extension dimension of the upper wall portion (B2, E2) and the lower wall portion (B3, E3) in the metal bumper-beam portion; the resin reinforcing rib (Br, Er) in the metal beam-extension portions is joined to the vertical wall portion (B1, E1), the upper wall portion (B2, B3), and the lowerwall portion (B3, E3) of the metal beam-extension portions; and stiffness of the metal bumper-beam portion is higher than stiffness of the metal beam-extension portions.
A thermal block (100, 101) for heating a liquid, comprising: - a tube (200, 201, 202, 203) for the passage of said liquid, provided with a wall, an inlet and an outlet, - a massive block (1, 10) consisting of a mass of heat-conducting material, - at least one resistive element for heating said massive block (1, 10), wherein the tube (200, 201, 202) has at least one corrugated segment with inner surface irregularities, characterized in that the tube (200, 201, 202, 203) is arranged in the thermal block (100, 101) so that the wall thereof is immersed in and separate from said mass, and so that said inlet and outlet are outside the massive block (1, 10), said corrugated segment with inner surface irregularities increasing the heat exchange between the massive block and the liquid. - a tube (200, 201, 202, 203) for the passage of said liquid, provided with a wall, an inlet and an outlet, - a massive block (1, 10) consisting of a mass of heat-conducting material, - at least one resistive element for heating said massive block (1, 10),
A water pressure transfer method comprising the steps of reproducing an adhesion of a dried print pattern by coating an ultraviolet ray hardening resin composite including photo-polymerization monomer to permeate said ultraviolet ray hardening resin composite into said print pattern; thereafter transferring said print pattern under water pressure onto a surface of an article to form a decoration layer and then irradiating an ultraviolet ray on said decoration layer to harden said decoration layer and at the same time form fine unevenness due to variation in shrinkage on the ink print portion of said decoration layer, characterized by further comprising the steps of performing a preliminary irradiation of an ultraviolet ray permeating only through the portion near the surface of said decoration layer before said decoration is hardened to form a fine surface height variation portion due to the shrinkage of ink on the surface of said ink print portion of said decoration layer; and thereafter performing a complete irradiation of ultraviolet ray penetrating through the whole thickness of said decoration layer to completely harden the whole thickness of said decoration layer while said surface height variation portion is maintained.
An air conditioning apparatus comprising a refrigerant circuit having a compressor, an outdoor heat exchanger, an indoor heat exchanger (42a, 42b), a stored-heat heat exchanger for exchanging heat between a refrigerant and a heat storage material, and a control part configured to perform operation control of the entire air conditioning apparatus to perform a heat storage operation for storing heat to the heat storage material by causing the stored-heat heat exchanger to function as a radiator of the refrigerant during a heating operation in which the indoor heat exchanger is caused to function as a radiator of the refrigerant, and a stored-heat usage operation for releasing heat from the heat storage material by causing the stored-heat heat exchanger to function as an evaporator of the refrigerant during a defrosting operation for defrosting the outdoor heat exchanger by causing the outdoor heat exchanger to function as a radiator of the refrigerant: characterized in that the control part is further configured to control the air conditioning apparatus such that: in the heat storage operation during the heating operation, the heat storage operation ends if a heat storage cumulative time that is an integrated value for the time at which a condensation temperature of the refrigerant in the refrigerant circuit is greater than or equal to a heat storage completion condensation temperature, is greater than or equal to a heat storage completion cumulative time, and after the heat storage operation ends, while the heating operation is performed, a heat retention operation is performed for retaining heat of the heat storage material. characterized in that the control part is further configured to control the air conditioning apparatus such that: in the heat storage operation during the heating operation, the heat storage operation ends if a heat storage cumulative time that is an integrated value for the time at which a condensation temperature of the refrigerant in the refrigerant circuit is greater than or equal to a heat storage completion condensation temperature, is greater than or equal to a heat storage completion cumulative time, and after the heat storage operation ends, while the heating operation is performed, a heat retention operation is performed for retaining heat of the heat storage material.
A spiral mist elimination system comprising: a container; an inlet to receive engine bleed air into the container; a layered assembly disposed within the container, wherein the layered assembly is in fluid communication with the inlet and contains a spiral shape concentric with a central axis of the container, further wherein the layered assembly imparts centrifugal motion in the engine bleed air as the engine bleed air travels spirally inward, the layered assembly comprising: a first portion of the layered assembly that forces a first set of droplets entrained in the engine bleed air toward an outer layer of the layered assembly, wherein the first portion of the layered assembly receives the first set of droplets; a mesh matrix disposed in the layered assembly, wherein a second set of droplets entrained in the engine bleed air impacts the mesh matrix and coalesces to form a third set of droplets; a perforated tube disposed along the central axis of the container, wherein the perforated tube is in fluid communication with the layered assembly and collects the engine bleed air from the layered assembly; and a reservoir to collect the first set of droplets and the third set of droplets, wherein gravity draws the first set of droplets and the third set of droplets into the reservoir; and wherein the mesh matrix includes at least one impermeable layer of material and at least one layer of mesh. a container; an inlet to receive engine bleed air into the container; a layered assembly disposed within the container, wherein the layered assembly is in fluid communication with the inlet and contains a spiral shape concentric with a central axis of the container, further wherein the layered assembly imparts centrifugal motion in the engine bleed air as the engine bleed air travels spirally inward, the layered assembly comprising: a first portion of the layered assembly that forces a first set of droplets entrained in the engine bleed air toward an outer layer of the layered assembly, wherein the first portion of the layered assembly receives the first set of droplets; a mesh matrix disposed in the layered assembly, wherein a second set of droplets entrained in the engine bleed air impacts the mesh matrix and coalesces to form a third set of droplets; a perforated tube disposed along the central axis of the container, wherein the perforated tube is in fluid communication with the layered assembly and collects the engine bleed air from the layered assembly; and a reservoir to collect the first set of droplets and the third set of droplets, wherein gravity draws the first set of droplets and the third set of droplets into the reservoir; and wherein the mesh matrix includes at least one impermeable layer of material and at least one layer of mesh.
A camera lens system comprising: a lens (106, 116) having a pair of first and second opposed axial faces, and a circumferential edge between the faces; a lens mount having an inner surface circumscribing at least a portion of the lens edge; a first mounting ring in abutting contact with the lens only along its first axial face; and a biasing element coupled to the lens mount, for exerting axially oriented biasing force on the first lens face through the first mounting ring, wherein the biasing element comprises a compression spring, wherein the lens, lens mount, first mounting ring, and biasing element are constructed of materials capable of continuous operation at temperatures greater than 600 degrees Celsius (1112 degrees Fahrenheit), wherein the camera lens system allows different rates of axial expansion and contraction of the lens, lens mount, and first mounting ring, wherein the first mounting ring comprises: a mounting rim having a mounting rim edge in opposed relationship with the lens mount inner surface; and a plurality of flexible cantilever fingers respectively having proximal ends coupled to the mounting rim, and distal ends projecting axially away from the rim that are in biased abutting contact with the first lens only along the first axial face thereof. a lens (106, 116) having a pair of first and second opposed axial faces, and a circumferential edge between the faces; a lens mount having an inner surface circumscribing at least a portion of the lens edge; a first mounting ring in abutting contact with the lens only along its first axial face; and a biasing element coupled to the lens mount, for exerting axially oriented biasing force on the first lens face through the first mounting ring, wherein the biasing element comprises a compression spring, wherein the lens, lens mount, first mounting ring, and biasing element are constructed of materials capable of continuous operation at temperatures greater than 600 degrees Celsius (1112 degrees Fahrenheit), wherein the camera lens system allows different rates of axial expansion and contraction of the lens, lens mount, and first mounting ring, wherein the first mounting ring comprises: a mounting rim having a mounting rim edge in opposed relationship with the lens mount inner surface; and a plurality of flexible cantilever fingers respectively having proximal ends coupled to the mounting rim, and distal ends projecting axially away from the rim that are in biased abutting contact with the first lens only along the first axial face thereof. a mounting rim having a mounting rim edge in opposed relationship with the lens mount inner surface; and a plurality of flexible cantilever fingers respectively having proximal ends coupled to the mounting rim, and distal ends projecting axially away from the rim that are in biased abutting contact with the first lens only along the first axial face thereof.