mhurhangee/patent-ind-claim-en huggingface dataset:
A method of purifying recombinant arylsulfatase A (ASA) protein, the method comprising purifying recombinant arylsulfatase A (ASA) protein from an impure preparation by conducting one or more chromatography steps; pooling eluate from the one or more chromatography steps; adjusting the pH of the pooled eluate to pH of 5.8-7.0; and subjecting the pH-adjusted eluate after the one or more chromatography steps to a single step of (i) ultrafiltration, (ii) diafiltration, or (iii) combined ultrafiltration/diafiltration thereby exchanging the recombinant ASA protein directly into final formulation buffer.
A hair dryer (100; 200) comprising: a body (102; 204) defining a cavity ; an inlet (120; 216) for airflow to enter the cavity ; an outlet (112; 218) for the airflow to exit the cavity ; an attachment (300; 400) including an inlet (308; 408) and a connector (312; 412) configured to extend into a central passage (130; 214) of the body (102; 204), the connector (312; 412) having a shape that corresponds to the shape of the central passage, the connector (312; 412) having a cylindrical wall and a stop configured to contact the body (102; 204) and prevent insertion of the attachment (300; 400) beyond the connector (312; 412), the stop including a collar extending about and spaced radially from the wall , the attachment (300; 400) configured to connect to the body (102; 204) in flow communication with the outlet (122; 218) such that airflow into the attachment inlet (308; 408) passes between the collar and the wall ; and a grip feature (301; 401) configured to extend between and contact the wall of the connector (312; 412) and the body (102; 204) when the attachment (300; 400) is connected to the body (102; 204), wherein the grip feature (301; 401) is configured to provide an interference fit between the attachment (300; 400) and the body (102; 204) and resist movement of the attachment (300; 400) relative to the body (102; 204) when the attachment (300; 400) is connected to the body (102; 204). a body (102; 204) defining a cavity ; an inlet (120; 216) for airflow to enter the cavity ; an outlet (112; 218) for the airflow to exit the cavity ; an attachment (300; 400) including an inlet (308; 408) and a connector (312; 412) configured to extend into a central passage (130; 214) of the body (102; 204), the connector (312; 412) having a shape that corresponds to the shape of the central passage, the connector (312; 412) having a cylindrical wall and a stop configured to contact the body (102; 204) and prevent insertion of the attachment (300; 400) beyond the connector (312; 412), the stop including a collar extending about and spaced radially from the wall , the attachment (300; 400) configured to connect to the body (102; 204) in flow communication with the outlet (122; 218) such that airflow into the attachment inlet (308; 408) passes between the collar and the wall ; and a grip feature (301; 401) configured to extend between and contact the wall of the connector (312; 412) and the body (102; 204) when the attachment (300; 400) is connected to the body (102; 204), wherein the grip feature (301; 401) is configured to provide an interference fit between the attachment (300; 400) and the body (102; 204) and resist movement of the attachment (300; 400) relative to the body (102; 204) when the attachment (300; 400) is connected to the body (102; 204).
A method comprising: receiving, by a database system , a query statement; forming a runtime plan tree in accordance with the query statement; and traversing the runtime plan tree, comprising: determining whether a function node of the runtime plan tree is qualified for just-in-time, JIT, compilation, and upon determining that the function node is a qualified for JIT compilation: producing a string key in accordance with a function of the function node, and determining whether a compiled object corresponding to the string key is stored in a compiled object cache , upon determining that the compiled object is not in the compiled object cache , generating a low level virtual machine, LLVM, intermediate representation, IR, format function in accordance with a function of the function node, machine code just-in-time, MCJIT, compiling the LLVM IR format function to produce a compiled object, and storing the compiled object in the compiled object cache . receiving, by a database system , a query statement; forming a runtime plan tree in accordance with the query statement; and traversing the runtime plan tree, comprising: determining whether a function node of the runtime plan tree is qualified for just-in-time, JIT, compilation, and upon determining that the function node is a qualified for JIT compilation: producing a string key in accordance with a function of the function node, and determining whether a compiled object corresponding to the string key is stored in a compiled object cache , upon determining that the compiled object is not in the compiled object cache , generating a low level virtual machine, LLVM, intermediate representation, IR, format function in accordance with a function of the function node, machine code just-in-time, MCJIT, compiling the LLVM IR format function to produce a compiled object, and storing the compiled object in the compiled object cache . determining whether a function node of the runtime plan tree is qualified for just-in-time, JIT, compilation, and upon determining that the function node is a qualified for JIT compilation: producing a string key in accordance with a function of the function node, and determining whether a compiled object corresponding to the string key is stored in a compiled object cache , producing a string key in accordance with a function of the function node, and determining whether a compiled object corresponding to the string key is stored in a compiled object cache , upon determining that the compiled object is not in the compiled object cache , generating a low level virtual machine, LLVM, intermediate representation, IR, format function in accordance with a function of the function node, machine code just-in-time, MCJIT, compiling the LLVM IR format function to produce a compiled object, and storing the compiled object in the compiled object cache .
A production apparatus of a two-layer preform including an inner layer preform and an outer layer preform, the apparatus comprising: a first injection molding unit that injection molds the inner layer preform with a first resin material; and a second injection molding unit that internally accommodates the inner layer preform that is injection molded in the first injection molding unit and injection molds the outer layer preform on the outside of the inner layer preform with a second resin material having a lower melting point than the first resin material, wherein the second injection molding unit has an outer layer cavity mold for injection-molding the outer layer preform, a bottom surface of the outer layer cavity mold is provided with a protrusion for separating the inner layer preform disposed in the outer layer cavity mold from the bottom surface, and a through-hole is formed in the outer layer preform by the protrusion to introduce external air between the outer layer preform and the inner layer preform. a first injection molding unit that injection molds the inner layer preform with a first resin material; and a second injection molding unit that internally accommodates the inner layer preform that is injection molded in the first injection molding unit and injection molds the outer layer preform on the outside of the inner layer preform with a second resin material having a lower melting point than the first resin material, wherein the second injection molding unit has an outer layer cavity mold for injection-molding the outer layer preform, a bottom surface of the outer layer cavity mold is provided with a protrusion for separating the inner layer preform disposed in the outer layer cavity mold from the bottom surface, and a through-hole is formed in the outer layer preform by the protrusion to introduce external air between the outer layer preform and the inner layer preform.
Bicycle comprising: - a head tube ; - a down tube connected to the head tube, the head tube comprising a cable passage connecting the interior of the head tube with the interior of the down tube; and - a steering tube rotatably engaging an upper bearing and a lower bearing within the head tube, characterized in that the upper bearing is below the cable passage. - a head tube ; - a down tube connected to the head tube, the head tube comprising a cable passage connecting the interior of the head tube with the interior of the down tube; and - a steering tube rotatably engaging an upper bearing and a lower bearing within the head tube, characterized in that the upper bearing is below the cable passage.
A wireless electrocardiogram monitoring device comprising a patch portion including a plurality of electrodes; and a module portion separably coupled to the patch portion and configured to perform wireless communication with an outside, wherein the patch portion comprises: a downward patch portion formed on a bottom surface attached to the human body and comprising some of the plurality of electrodes to be exposed through the bottom surface; and an upward patch portion located on a top surface opposite the bottom surface and comprising other of the plurality of electrodes to be exposed through the top surface, wherein the plurality of electrodes are provided as nine or ten electrodes, and wherein the upward patch portion comprises two electrodes among the nine or ten electrodes to be attached to both hands or fingers of the human body.. a downward patch portion formed on a bottom surface attached to the human body and comprising some of the plurality of electrodes to be exposed through the bottom surface; and an upward patch portion located on a top surface opposite the bottom surface and comprising other of the plurality of electrodes to be exposed through the top surface, wherein the plurality of electrodes are provided as nine or ten electrodes, and wherein the upward patch portion comprises two electrodes among the nine or ten electrodes to be attached to both hands or fingers of the human body..
An oral care composition comprising: a. arginine; b. zinc oxide and zinc citrate; c. from 0.75 wt.% to 2 wt.% of a chelating system comprising soluble pyrophosphate salts providing 0.1 wt.% to 2 wt.% of pyrophosphate ions; d. a thickening system comprising one or more selected from the group consisting of carboxyvinyl polymers, carrageenan, xanthan gum, hydroxyethyl cellulose and water soluble salts of cellulose ethers, natural gums, colloidal magnesium aluminum silicate, finely divided silica, and polysaccharide gums; e. a fluoride ion source; and f. a silica abrasive which exhibits an acid pH when measured as an aqueous slurry. a. arginine; b. zinc oxide and zinc citrate; c. from 0.75 wt.% to 2 wt.% of a chelating system comprising soluble pyrophosphate salts providing 0.1 wt.% to 2 wt.% of pyrophosphate ions; d. a thickening system comprising one or more selected from the group consisting of carboxyvinyl polymers, carrageenan, xanthan gum, hydroxyethyl cellulose and water soluble salts of cellulose ethers, natural gums, colloidal magnesium aluminum silicate, finely divided silica, and polysaccharide gums; e. a fluoride ion source; and f. a silica abrasive which exhibits an acid pH when measured as an aqueous slurry.
Assembly comprising: - a partition wall secured to a vehicle body and placed between a cooling system and an apron ; - a deflector comprising a structure positioned under the partition wall ; characterized in that the deflector is provided with a claw hinged relative to the structure of the deflector , said claw being suitable for being inserted into an opening provided in the partition wall . - a partition wall secured to a vehicle body and placed between a cooling system and an apron ; - a deflector comprising a structure positioned under the partition wall ;
A solid state radio frequency generation system for an electromagnetic cooking device having an enclosed cavity in which a food load is placed, the solid state radio frequency generation system comprising: a small signal generator for generating an input RF signal; an RF feed (26, 26A-26D) configured to introduce electromagnetic radiation into the enclosed cavity to heat up and prepare the food load, the RF feed (26, 26A-26D) configured to receive reflected electromagnetic radiation from the enclosed cavity ; and a high-power RF amplifier (18, 18A-18D) coupled between the small signal generator and the RF feed (26, 26A-26D), the high-power RF amplifier (18, 18A-18D) comprising: at least one amplifying stage configured to output a signal that is amplified in power with respect to the input RF signal; and a circulator for directing the amplified output signal to the RF feed (26, 26A-26D) and for redirecting any reflected waves and their associated power received from the RF feed (26, 26A-26D) to a dummy load ; characterised in that the solid state radio frequency generation system comprises a hardware protection component for detecting backward power in the reflected electromagnetic radiation received by the RF feed (26, 26A-26D) and for reducing power supplied to the at least one amplifying stage if the backward power exceeds a power threshold within a time scale that prevents electrical stress or damage to the circulator . a small signal generator for generating an input RF signal; an RF feed (26, 26A-26D) configured to introduce electromagnetic radiation into the enclosed cavity to heat up and prepare the food load, the RF feed (26, 26A-26D) configured to receive reflected electromagnetic radiation from the enclosed cavity ; and a high-power RF amplifier (18, 18A-18D) coupled between the small signal generator and the RF feed (26, 26A-26D), the high-power RF amplifier (18, 18A-18D) comprising: at least one amplifying stage configured to output a signal that is amplified in power with respect to the input RF signal; and a circulator for directing the amplified output signal to the RF feed (26, 26A-26D) and for redirecting any reflected waves and their associated power received from the RF feed (26, 26A-26D) to a dummy load ; at least one amplifying stage configured to output a signal that is amplified in power with respect to the input RF signal; and a circulator for directing the amplified output signal to the RF feed (26, 26A-26D) and for redirecting any reflected waves and their associated power received from the RF feed (26, 26A-26D) to a dummy load ; characterised in that the solid state radio frequency generation system comprises a hardware protection component for detecting backward power in the reflected electromagnetic radiation received by the RF feed (26, 26A-26D) and for reducing power supplied to the at least one amplifying stage if the backward power exceeds a power threshold within a time scale that prevents electrical stress or damage to the circulator .
An absorbent article comprising: an absorbent body provided between a liquid permeable topsheet and a backsheet ; and a second sheet provided between the liquid permeable topsheet and the absorbent body , wherein slits that penetrate in the thickness direction of the absorbent body are formed along a longitudinal direction on both side portions of the absorbent body in the width direction, a body-fluid-expelling-portion corresponding region is included between the slits , the second sheet is provided along an inner surface of the slits , concave grooves , in which the second sheet and the backsheet are integrated, are formed in the slits , at least a portion of the second sheet that forms one of the side surfaces of the concave grooves has water-repellent properties, wherein a portion of the second sheet that forms all of an inner surface of the concave grooves has water-repellent properties, and wherein the second sheet is made of a continuous sheet that covers the slits on both sides, portions of the second sheet that form the concave grooves on both sides have water-repellent properties, and a portion of the second sheet between the water-repellent portions has hydrophilic properties.
A production method of unidirectional thermoplastic prepreg structures containing opposing surfaces, wherein one surface includes uni-directionally oriented natural fibers and the other surface includes randomly oriented natural fibers , comprising the steps of; • arranging yarns , having a structure in which an untwisted ribbon form of reinforcing natural fibers and a multifilament form of thermoplastic polymer to create a matrix are positioned in parallel and are located together in the center of the yarn and are wrapped with thermoplastic polymer in the form of the multifilament to create the matrix, side by side without leaving space between them by means of a yarn feeder and creating the surface of the unidirectionally oriented natural fibers of the prepreg structure, • creating simultaneously a second surface with randomly oriented natural fibers on the surface with unidirectionally oriented natural fibers, by random spattering of natural fibers or of natural fibers with thermoplastic polymer in the form of powder and/or fiber on the surface of unidirectionally oriented natural fibers obtained by the side-by-side arrangement of yarns, • thermal processing of the surface with unidirectionally oriented natural fibers and the second surface with randomly oriented natural fibers on it together. • arranging yarns , having a structure in which an untwisted ribbon form of reinforcing natural fibers and a multifilament form of thermoplastic polymer to create a matrix are positioned in parallel and are located together in the center of the yarn and are wrapped with thermoplastic polymer in the form of the multifilament to create the matrix, side by side without leaving space between them by means of a yarn feeder and creating the surface of the unidirectionally oriented natural fibers of the prepreg structure, • creating simultaneously a second surface with randomly oriented natural fibers on the surface with unidirectionally oriented natural fibers, by random spattering of natural fibers or of natural fibers with thermoplastic polymer in the form of powder and/or fiber on the surface of unidirectionally oriented natural fibers obtained by the side-by-side arrangement of yarns, • thermal processing of the surface with unidirectionally oriented natural fibers and the second surface with randomly oriented natural fibers on it together.
Method of generating laser pulses , comprising the steps of - creating a circulating light field in a resonator device having a resonator length L and an intra-cavity dispersion and being configured for supporting a plurality of resonator modes of the light field, and - generating a pulse train of the laser pulses by a mode-locking mechanism, wherein the laser pulses provide a frequency comb with a carrier frequency ω o and plurality of comb modes in frequency space, characterized in that - the intra-cavity dispersion is selected such that round trip phases φ have a dependency on frequency ω according to φ ω = πm 1 + 4 ω − ω 0 mω r − 1 + L c ω 0 wherein m is an integer that gives an effective repetition rate, mω r , of the laser pulses in combination with a mode spacing ω r at the optical carrier frequency ω o , and - the mode-locking mechanism provides a coupling of the resonator modes such that the frequency difference, Δ = ω n+1 - ω n , between neighbouring mode frequencies, ω n and ω n+1 , is a linear function of an integer mode frequency number n. - creating a circulating light field in a resonator device having a resonator length L and an intra-cavity dispersion and being configured for supporting a plurality of resonator modes of the light field, and - generating a pulse train of the laser pulses by a mode-locking mechanism, wherein the laser pulses provide a frequency comb with a carrier frequency ω o and plurality of comb modes in frequency space, characterized in that - the intra-cavity dispersion is selected such that round trip phases φ have a dependency on frequency ω according to φ ω = πm 1 + 4 ω − ω 0 mω r − 1 + L c ω 0 wherein m is an integer that gives an effective repetition rate, mω r , of the laser pulses in combination with a mode spacing ω r at the optical carrier frequency ω o , and - the mode-locking mechanism provides a coupling of the resonator modes such that the frequency difference, Δ = ω n+1 - ω n , between neighbouring mode frequencies, ω n and ω n+1 , is a linear function of an integer mode frequency number n.
A fluidic coupling comprising: a coupling body having a coupling body internal sealing surface , a first bore extending from an external surface, a second bore having a smaller diameter than the first bore, a conical cavity between the first and second bores, and a first fluid channel extending from the coupling body internal sealing surface at the end of the second bore opposite the conical cavity and through the coupling body ; a polymeric body having a first endface , a second endface opposite to the first endface , a first outer surface extending from the first endface and having a cylindrical shape, and a second outer surface having a chamfer which extends from the first outer surface to the second endface , the polymeric body having a bore extending from the first end to a polymeric body internal sealing surface and having a fluid channel extending from the polymeric body internal sealing surface to the second endface , the bore configured to receive a tube having a fluid channel so that an endface of the tube engages the polymeric body internal sealing surface , the second endface of the polymeric body configured to engage the coupling body internal sealing surface , the second outer surface of the polymeric body and an internal surface of the coupling body defining a deformation volume to receive a deformation of the polymeric body when under axial compression, wherein a fluidic seal is formed between the fluid channel of the tube and the fluid channel of the coupling body when the polymeric body is under compression. a coupling body having a coupling body internal sealing surface , a first bore extending from an external surface, a second bore having a smaller diameter than the first bore, a conical cavity between the first and second bores, and a first fluid channel extending from the coupling body internal sealing surface at the end of the second bore opposite the conical cavity and through the coupling body ; a polymeric body having a first endface , a second endface opposite to the first endface , a first outer surface extending from the first endface and having a cylindrical shape, and a second outer surface having a chamfer which extends from the first outer surface to the second endface , the polymeric body having a bore extending from the first end to a polymeric body internal sealing surface and having a fluid channel extending from the polymeric body internal sealing surface to the second endface , the bore configured to receive a tube having a fluid channel so that an endface of the tube engages the polymeric body internal sealing surface , the second endface of the polymeric body configured to engage the coupling body internal sealing surface , the second outer surface of the polymeric body and an internal surface of the coupling body defining a deformation volume to receive a deformation of the polymeric body when under axial compression, wherein a fluidic seal is formed between the fluid channel of the tube and the fluid channel of the coupling body when the polymeric body is under compression.