mhurhangee/ep-ind-claims huggingface dataset:
A recovery tool for recovering a solid element, especially a radioactive material, comprising: a chassis, a capture head which is movable relative to the chassis between a retracted position in which the capture head is housed inside an enclosure of the recovery tool, and an extended position for capturing the solid element, at least one bucket which is movable relative to the chassis between an opening position and a closing position, wherein the capture head is in an extended position when the bucket is in the opening position, wherein the bucket is in an opening position when the capture head is in the extended position, characterized in that the capture head is in the retracted position to retain the solid element inside the enclosure when the bucket is in the closing position, wherein the bucket is in the closing position when the capture head is in the retracted position, wherein the capture head comprises a cushion which is inflatable by a fluid, wherein the capture head is configured to retain the solid member relative to the chassis at least partially by suction by at least partially emptying the cushion of fluid. a chassis, a capture head which is movable relative to the chassis between a retracted position in which the capture head is housed inside an enclosure of the recovery tool, and an extended position for capturing the solid element, at least one bucket which is movable relative to the chassis between an opening position and a closing position, wherein the capture head is in an extended position when the bucket is in the opening position, wherein the bucket is in an opening position when the capture head is in the extended position, characterized in that the capture head is in the retracted position to retain the solid element inside the enclosure when the bucket is in the closing position, wherein the bucket is in the closing position when the capture head is in the retracted position, wherein the capture head comprises a cushion which is inflatable by a fluid, wherein the capture head is configured to retain the solid member relative to the chassis at least partially by suction by at least partially emptying the cushion of fluid.
An orthopedic walking brace configured to provide customized inflation control, said walking brace comprising: a shell component; a plurality of inflatable cells (104a-c; 412; 414; 416) positioned within said shell component, wherein each of said plurality of inflatable cells is positioned at a different location within said shell component and configured to provide individualized compression to said different location; a control (110; 210; 310; 410; 500; 600; 700; 800) having an inlet port (132; 320; 502; 604; 702; 802) and a plurality of outlet ports (134a-c; 322a-c; 504a-d; 606a-c; 704a-d; 806a-d), the control being positionable in two or more orientations, and each outlet port being in fluid communication with a respective one of the plurality of inflatable cells; and an inflation component (106; 404) in fluid communication with the inlet port of the control; wherein positioning of the control to a first orientation creates a fluid path (152, 164, 166; 330, 332, 334; 510, 526; 616, 620, 626; 706, 708) between the inflation component and a first inflatable cell of the plurality of inflatable cells, and positioning of the control to a second orientation creates a fluid path between the inflation component and a second inflatable cell of the plurality of inflatable cells; chaharcterized in that the control comprises an inlet portion to align with the inlet port, and an outlet portion to align with one of the plurality of outlet ports, the control being linearly moveable within a trough, wherein the outlet portion is narrower than the inlet portion. a shell component; a plurality of inflatable cells (104a-c; 412; 414; 416) positioned within said shell component, wherein each of said plurality of inflatable cells is positioned at a different location within said shell component and configured to provide individualized compression to said different location; a control (110; 210; 310; 410; 500; 600; 700; 800) having an inlet port (132; 320; 502; 604; 702; 802) and a plurality of outlet ports (134a-c; 322a-c; 504a-d; 606a-c; 704a-d; 806a-d), the control being positionable in two or more orientations, and each outlet port being in fluid communication with a respective one of the plurality of inflatable cells; and an inflation component (106; 404) in fluid communication with the inlet port of the control; wherein positioning of the control to a first orientation creates a fluid path (152, 164, 166; 330, 332, 334; 510, 526; 616, 620, 626; 706, 708) between the inflation component and a first inflatable cell of the plurality of inflatable cells, and positioning of the control to a second orientation creates a fluid path between the inflation component and a second inflatable cell of the plurality of inflatable cells; chaharcterized in that the control comprises an inlet portion to align with the inlet port, and an outlet portion to align with one of the plurality of outlet ports, the control being linearly moveable within a trough, wherein the outlet portion is narrower than the inlet portion.
A device with at least one area element (37, 38) of a material with limited elasticity, particularly of a membrane, which is arranged on and can be tensioned between rod-like support elements (30, 31, 31 a), wherein the rod-like support elements (30, 31, 31 a) are on one end attached to at least one fixable hinge plate such that they can be pivoted relative to one another, and wherein two support elements can respectively be adjusted relative to one another by an angle (w), the vertex of which is assigned to the hinge plate, characterized in that the hinge plate is on one of its lateral edges (21 t) connected to a guide carriage, and in that this guide carriage can be placed onto a guide rail of the device and is designed to be displaceable thereon.
A solenoid valve for varying the aperture of a passage between a valve seat and a valve body by a PWM-controlled solenoid, and varying the volume or pressure of a working fluid, wherein a friction member for contacting the outside periphery of a reciprocating member directly driven through driving by said solenoid is furnished to a stationary-side member (64, 30) in an area surrounding said reciprocating member, characterized in that said friction member is constituted by a rubber ring formed from a rubber material and furnished with a plurality of protrusions on the inside diameter side of said rubber ring in the circumferential direction, said rubber ring contacting the outside periphery of said reciprocating member exclusively at the protrusions, or in that said friction member is constituted by a synthetic resin ring formed from a synthetic resin material, wherein said synthetic resin ring being substantially "C" shaped in cross-section, and furnished with inside diameter-side ring portions and a plurality of notched portions on the inside diameter side of the synthetic resin ring in the circumferential direction, the synthetic resin ring contacting the outside periphery of said reciprocating member at the inside diameter-side ring portions.
Process for obtaining an aqueous extract of tea leaves (Camellia sinensis) selected from fresh tea, pu'er tea, matcha tea or green tea, comprising the following steps: a) tea leaves or tea powder are brought into contact with water, then optionally ground; b) phytic acid is added; c) adjust the pH to between 10 and 11; d) the mixture is stirred for at least one hour at a temperature of between 40 and 80°C; e) the mixture obtained in c) is purified to remove residual solid plant matter and the filtrate is collected; f) adjust the pH to a value between 6 and 8; g) treat with powdered activated carbon; h) filter to remove activated carbon and collect filtrate; i) treat filtrate with polyvinylpolypyrrolidones (PVPP); j) filter to remove polyvinylpolypyrrolidones and collect filtrate; k) the pH of the filtrate is checked and readjusted, if necessary, to a value between 6 and 6.5. a) tea leaves or tea powder are brought into contact with water, then optionally ground; b) phytic acid is added; c) adjust the pH to between 10 and 11; d) the mixture is stirred for at least one hour at a temperature of between 40 and 80°C; e) the mixture obtained in c) is purified to remove residual solid plant matter and the filtrate is collected; f) adjust the pH to a value between 6 and 8; g) treat with powdered activated carbon; h) filter to remove activated carbon and collect filtrate; i) treat filtrate with polyvinylpolypyrrolidones (PVPP); j) filter to remove polyvinylpolypyrrolidones and collect filtrate; k) the pH of the filtrate is checked and readjusted, if necessary, to a value between 6 and 6.5.
A method, comprising: immersing a glass-based substrate comprising a glass ceramic in a molten salt bath to produce a glass-based article, wherein prior to the immersion of any glass-based substrate in the molten salt bath, the molten salt bath comprises: a nitrate salt, and a nitrite salt in an amount of greater than or equal to 0.01 wt% and less than or equal to 1.0 wt%, wherein the nitrite salt comprises NaNO 2.. immersing a glass-based substrate comprising a glass ceramic in a molten salt bath to produce a glass-based article, wherein prior to the immersion of any glass-based substrate in the molten salt bath, the molten salt bath comprises: a nitrate salt, and a nitrite salt in an amount of greater than or equal to 0.01 wt% and less than or equal to 1.0 wt%, wherein the nitrite salt comprises NaNO 2.. a nitrate salt, and a nitrite salt in an amount of greater than or equal to 0.01 wt% and less than or equal to 1.0 wt%, wherein the nitrite salt comprises NaNO 2..
An imaging optical system for imaging an object, the imaging optical system including: two or more imaging lenses having an anspherical convex surface and a spherical concave surface on which the light emitted from the object is incident, a plurality of pairs of cemented lenses and a spherical lens to which the light is emitted from the imaging lenses, and a polarizer; wherein a rate of change of an image height y per view angle, i.e. dy/dθ, is greater than 0 at a maximum view angle θmax of the imaging optical system; and a rate of change of a view angle per image height, i.e. D(θ) = 1/(dy(θ)/dθ), satisfies an expression D(θp) > {(D(θmax) - D)/θmaxθ}θp + D, with θp which lies in a range of 0 < θ < θmax. two or more imaging lenses having an anspherical convex surface and a spherical concave surface on which the light emitted from the object is incident, a plurality of pairs of cemented lenses and a spherical lens to which the light is emitted from the imaging lenses, and a polarizer; wherein a rate of change of an image height y per view angle, i.e. dy/dθ, is greater than 0 at a maximum view angle θmax of the imaging optical system; and a rate of change of a view angle per image height, i.e. D(θ) = 1/(dy(θ)/dθ), satisfies an expression D(θp) > {(D(θmax) - D)/θmaxθ}θp + D, with θp which lies in a range of 0 < θ < θmax.
An envelope for holding a transaction card comprising: a) a planar surface having a first side and a second side; b) a slot cut into said planar surface; c) an adhesive superimposed on said second side of the planar surface for adhesively affixing said planar surface to an object, wherein a pocket is defined between the planar surface and the object, said pocket in communication with said slot; and d) a concealed promotional material assembly coupled to the first side of the planar surface wherein the promotional material assembly comprises promotional material, a label concealing the promotional material and an adhesive removably securing the label in covering relation to the promotional material. a) a planar surface having a first side and a second side; b) a slot cut into said planar surface; c) an adhesive superimposed on said second side of the planar surface for adhesively affixing said planar surface to an object, wherein a pocket is defined between the planar surface and the object, said pocket in communication with said slot; and d) a concealed promotional material assembly coupled to the first side of the planar surface wherein the promotional material assembly comprises promotional material, a label concealing the promotional material and an adhesive removably securing the label in covering relation to the promotional material.
A method for detecting a target nucleic acid comprising: a) incorporating a detector oligonucleotide conjugated to a fluorophore or a quencher into a target nucleic acid by ligation to form a reaction; b) adding an oligonucleotide probe to the reaction; c) adding an inhibitor oligonucleotide to the reaction such that the inhibitor oligonucleotide hybridizes to the incorporated detector, wherein the inhibitor oligonucleotide is conjugated to a quencher if the detector oligonucleotide is conjugated to a fluorophore and wherein the inhibitor oligonucleotide is conjugated to a fluorophore if the detector oligonucleotide is conjugated to a quencher and wherein hybridization of the inhibitor oligonucleotide to the detector oligonucleotide quenches signal from the fluorophore; and d) detecting interference of the oligonucleotide probe with the inhibitor oligonucleotide as an indication of the presence of the target nucleic acid, wherein the detecting comprises performing a strand displacement reaction with a polymerase that extends the oligonucleotide probe, displaces the inhibitor oligonucleotide, and no longer quenches the fluorophore to generate a fluorescent signal if the oligonucleotide probe hybridizes to the target nucleic acid. a) incorporating a detector oligonucleotide conjugated to a fluorophore or a quencher into a target nucleic acid by ligation to form a reaction; b) adding an oligonucleotide probe to the reaction; c) adding an inhibitor oligonucleotide to the reaction such that the inhibitor oligonucleotide hybridizes to the incorporated detector, wherein the inhibitor oligonucleotide is conjugated to a quencher if the detector oligonucleotide is conjugated to a fluorophore and wherein the inhibitor oligonucleotide is conjugated to a fluorophore if the detector oligonucleotide is conjugated to a quencher and wherein hybridization of the inhibitor oligonucleotide to the detector oligonucleotide quenches signal from the fluorophore; and d) detecting interference of the oligonucleotide probe with the inhibitor oligonucleotide as an indication of the presence of the target nucleic acid, wherein the detecting comprises performing a strand displacement reaction with a polymerase that extends the oligonucleotide probe, displaces the inhibitor oligonucleotide, and no longer quenches the fluorophore to generate a fluorescent signal if the oligonucleotide probe hybridizes to the target nucleic acid.
Procedure for the analysis of alcoholic beverages regarding the validity of their origin by means of a Raman spectrometer for the determination of a Raman spectrum of a sample to be investigated of an alcoholic beverage within a unopened and bottle-shaped vessel, using at least one laser optical device to create a laser beam, with at least one motorised filter of varying optical density to adjust the laser beam to the sample and at least one lens for light in the visible spectrum, whereby for the measurements of refraction, absorption, transmission and/or reflection a microscope with a macro objective (1109 with a long focus of at least D=20mm and a fastening device for the fixable bottle-shaped vessel is provided, made of glass, whereby the measurement is made inside bottle-shaped vessel positioned below the macro objective of the microscope in the fixture, whereby the laser has a wavelength of 785 nm, and whereby for the execution of the procedure two closed vessels containing an alcoholic beverage are measured subsequently with the Raman spectrometer, whereby the measured spectra are compared with one another by using a main component analysis, and whereby the originality of the alcoholic content inside the vessels is assessed using the correspondence and correlation of the respective spectra.
An emulsion polymerization process comprising (a) adding a reactive mixture to a reaction vessel, said reactive mixture comprising water, one or more emulsifiers, butyl acrylate, and an allyl methacrylate crosslinker having a free radical reactivity ratio of less than 1, (b) providing conditions in which said reactive mixture undergoes emulsion polymerization to form a crosslinked core comprising from 98 to 99.9 wt% units derived from butyl acrylate and from 0.1 to 2 wt% units derived from allyl methacrylate crosslinker having a glass transition temperature, Tg, of less than or equal to 10 °C and wherein the allyl methacrylate crosslinker is in an amount sufficient such that the crosslinked core has a swell ratio between 8 and 15 in THF and forming a polymer having an original ratio of units derived from the allyl methacrylate crosslinker to units derived from the butyl acrylate; and (c) feeding additional allyl methacrylate crosslinker during polymerization in an amount sufficient to maintain the original ratio of allyl methacrylate crosslinker to butyl acrylate.
A positive electrode active material particle comprising a core that includes lithium cobalt oxide represented by the following Chemical Formula 1; and a shell that is located on the surface of the core and includes lithium cobalt phosphate represented by the following Chemical Formula 2, wherein the shell has a tetrahedral phase: Li a Co (1-x) M x O 2-y A y wherein M is at least one of Ti, Mg, Zn, Si, Al, Zr, V, Mn, Nb, and Ni, A is oxygen-substitutional halogen, and 0.95≤a≤1.05, 0≤x≤0.2, 0≤y≤0.2, and 0≤x+y≤0.2, Li b CoPO 4 wherein 0≤b≤1.
An operating system for an agricultural working machine, comprising: - a control device which is connected, for the purposes of signalling, to a display unit, a drive lever as well as an operations panel, wherein at least the drive lever comprises a plurality of operational elements (34a, 34b, 34c), wherein the display unit is configured as a touch-sensitive display screen with one or more visualisation zones as well as a plurality of virtual operational elements (38, 41a, 41b, 44a, 44b), wherein a preferred quick select function out of a plurality of different quick select functions (51 - 57) for adjusting an operational parameter of the working machine associated with a respective quick selection function is allocated, in a pre-configured manner, to a respective one of the operational elements (38, 34a, 35a) of the display unit, the drive lever and the operations panel and which can be presented by means of the display unit upon activation, wherein the quick select function associated with the respective control element (38, 34a, 35a) can be activated by means of the display unit and/or the drive lever and/or the operations panel. - a control device which is connected, for the purposes of signalling, to a display unit, a drive lever as well as an operations panel, wherein at least the drive lever comprises a plurality of operational elements (34a, 34b, 34c), wherein the display unit is configured as a touch-sensitive display screen with one or more visualisation zones as well as a plurality of virtual operational elements (38, 41a, 41b, 44a, 44b), wherein a preferred quick select function out of a plurality of different quick select functions (51 - 57) for adjusting an operational parameter of the working machine associated with a respective quick selection function is allocated, in a pre-configured manner, to a respective one of the operational elements (38, 34a, 35a) of the display unit, the drive lever and the operations panel and which can be presented by means of the display unit upon activation, wherein the quick select function associated with the respective control element (38, 34a, 35a) can be activated by means of the display unit and/or the drive lever and/or the operations panel.
A high-strength cold-rolled steel sheet excellent in uniform elongation, consisting in percent by mass of (which is hereinafter applied similarly to chemical components): 0.10 - 0.28 % of C; 1.0 - 2.0 % of Si; 1.0 - 3.0 % of Mn, optionally at least one element selected from a group consisting of: 0.10 % or less (not including 0 %) of Nb; 1.0 % or less (not including 0 %) of Mo; 0.5 % or less (not including 0 %) of Ni; and 0.5 % or less (not including 0 %) of Cu; optionally 0.003 % or less (not including 0 %) of Ca and/or 0.003 % or less (not including 0 %) of REM; and optionally 0.1 % or less (not including 0 %) of Ti and/or 0.1 % or less (not including 0 %) of V; and balance consisting of iron and unavoidable impurities; and the structures of the same having the space factors below to the entire structure: 30 - 65 % of bainitic ferrite; 30 - 50 % of polygonal ferrite; 5 - 20 % of residual austenite; and 10% or less (including 0%) of total amount of other structures comprising pearlite, bainite and martensite; wherein the product of the tensile strength [TS(MPa)] and elongation [EL(%)] is 23000 or more and the product of tensile strength [TS(MPa)] and uniform elongation [u-EL (%)] is 14700 or more. 0.10 - 0.28 % of C; 1.0 - 2.0 % of Si; 1.0 - 3.0 % of Mn, 0.10 % or less (not including 0 %) of Nb; 1.0 % or less (not including 0 %) of Mo; 0.5 % or less (not including 0 %) of Ni; and 0.5 % or less (not including 0 %) of Cu; optionally 0.003 % or less (not including 0 %) of Ca and/or 0.003 % or less (not including 0 %) of REM; and optionally 0.1 % or less (not including 0 %) of Ti and/or 0.1 % or less (not including 0 %) of V; and balance consisting of iron and unavoidable impurities; 30 - 65 % of bainitic ferrite; 30 - 50 % of polygonal ferrite; 5 - 20 % of residual austenite; and
An aqueous ophthalmic composition, comprising: an anionic therapeutic agent; mannitol at a concentration that is at least 0.05 w/v% but is no greater than 1.5w/v%; borate at a concentration that is at least 0.1 w/v% but is no greater than 0.5 w/v%; osmolality enhancing agent wherein the osmolality enhancing agent raises the osmolality of the ophthalmic composition at least 160 mOsm/Kg relative to a control composition that includes the exact same ingredients as the ophthalmic composition with the exception that the osmolality enhancing agent is replaced with water and pH is brought to the same value as that of the ophthalmic composition by using sodium hydroxide or hydrogen chloride if necessary and wherein the osmolality enhancing agent is present in the composition at a concentration that is at least 90 mmol and wherein the osmolality enhancing agent also enhances the physical stability or clarity of the composition; a polymeric quaternary ammonium compound as positively charged antimicrobial agent; and water, wherein the osmolality of the ophthalmic composition is in the range of 240 to 360 mOsm/kg. an anionic therapeutic agent; mannitol at a concentration that is at least 0.05 w/v% but is no greater than 1.5w/v%; borate at a concentration that is at least 0.1 w/v% but is no greater than 0.5 w/v%; osmolality enhancing agent wherein the osmolality enhancing agent raises the osmolality of the ophthalmic composition at least 160 mOsm/Kg relative to a control composition that includes the exact same ingredients as the ophthalmic composition with the exception that the osmolality enhancing agent is replaced with water and pH is brought to the same value as that of the ophthalmic composition by using sodium hydroxide or hydrogen chloride if necessary and wherein the osmolality enhancing agent is present in the composition at a concentration that is at least 90 mmol and wherein the osmolality enhancing agent also enhances the physical stability or clarity of the composition; a polymeric quaternary ammonium compound as positively charged antimicrobial agent; and water, wherein the osmolality of the ophthalmic composition is in the range of 240 to 360 mOsm/kg.