mhurhangee/ep-ind-claims huggingface dataset:
A method for preparing a high-strength hollow fiber molecular sieve membrane, wherein the support of the high-strength molecular sieve membrane has a multi-channel hollow fiber configuration, the method comprising the following steps: preparing crystal seed solution: preparing the molecular sieve crystal seed particle and water to a molecular sieve suspension liquid with the mass fraction of molecular sieve crystal seed of 0.5-5%, then adding sodium silicate in the molecular sieve suspension liquid to obtain a well-diversified crystal seed solution upon ultrasonic processing, wherein average particle diameter of the molecular sieve crystal seed particle is 50 nm - 3 μm and the amount of the sodium silicate added in the molecular sieve crystal seed suspension liquid is 5-25% of the mass fraction of the molecular sieve suspension liquid; crystal seed coating: immersing the dry support with the multi-channel hollow fiber configuration in the crystal seed solution, and extracting and drying the support to obtain a crystal-seeded support; synthesis of membrane: placing the crystal-seeded support in a molecular sieve membrane synthetic fluid, performing hydrothermal synthesis, and taking out, washing the product to PH=7-9 and drying it to obtain the high-strength hollow fiber molecular sieve membrane; wherein the material of said support of the high-strength molecular sieve membrane is one or more of aluminum oxide, titanium oxide, yttria-stabilized zirconia, silicon oxide. preparing crystal seed solution: preparing the molecular sieve crystal seed particle and water to a molecular sieve suspension liquid with the mass fraction of molecular sieve crystal seed of 0.5-5%, then adding sodium silicate in the molecular sieve suspension liquid to obtain a well-diversified crystal seed solution upon ultrasonic processing, wherein average particle diameter of the molecular sieve crystal seed particle is 50 nm - 3 μm and the amount of the sodium silicate added in the molecular sieve crystal seed suspension liquid is 5-25% of the mass fraction of the molecular sieve suspension liquid; crystal seed coating: immersing the dry support with the multi-channel hollow fiber configuration in the crystal seed solution, and extracting and drying the support to obtain a crystal-seeded support; synthesis of membrane: placing the crystal-seeded support in a molecular sieve membrane synthetic fluid, performing hydrothermal synthesis, and taking out, washing the product to PH=7-9 and drying it to obtain the high-strength hollow fiber molecular sieve membrane;
A hydrocarbon cracking catalyst for preparing light olefin from C4 or more than C4 hydrocarbon having a boiling point of 30 ∼ 200 °C, which is characterized in that 0.01∼5.0 wt% of MnO 2 and 1∼15 wt% of P 2 O 5 are simultaneously supported on a catalyst component, wherein the catalyst component comprises 1 ∼ 50wt% of zeolite, 21 ∼ 70wt% of clay, and 1 ∼ 40wt% of an inorganic oxide, wherein zeolite is ZSM-5 zeolite, and wherein both MnO 2 and P 2 O 5 are embedded on each of the zeolite, the clay and the inorganic oxide in the catalyst component.
An antibody or fragment thereof which binds human α-synuclein protofibrils having a molecular weight in a range of from 1000 to 5000 kDa, wherein binding of the antibody or fragment to each of α-synuclein monomers and β-synuclein monomers is at least 100 times less than binding of the antibody or fragment to human α-synuclein protofibrils, the antibody or fragment having three variable heavy CDR sequences (VH-CDR-1, VH-CDR-2, and VH-CDR-3) and three variable light CDR sequences (VL-CDR-1, VL-CDR-2, and VL-CDR-3), and wherein the the antibody or fragment thereof has a CDR sequence combination selected from the following combinations: (a) VH-CDR-1: SEQ ID NO: 22, VH-CDR-2: SEQ ID NO: 28, VH-CDR-3: SEQ ID NO: 35, VL-CDR-1: SEQ ID NO: 41, VL-CDR-2: SEQ ID NO: 47 and VL-CDR-3: SEQ ID NO: 50, (b) VH-CDR-1: SEQ ID NO: 23, VH-CDR-2: SEQ ID NO: 29, VH-CDR-3: SEQ ID NO: 36, VL-CDR-1: SEQ ID NO: 42, VL-CDR-2: SEQ ID NO: 47 and VL-CDR-3: SEQ ID NO: 50, (c) VH-CDR-1: SEQ ID NO: 24, VH-CDR-2: SEQ ID NO: 30, VH-CDR-3: SEQ ID NO: 37, VL-CDR-1: SEQ ID NO: 43, VL-CDR-2: SEQ ID NO: 48 and VL-CDR-3: SEQ ID NO: 51, (d) VH-CDR-1: SEQ ID NO: 25, VH-CDR-2: SEQ ID NO: 31, VH-CDR-3: SEQ ID NO: 38, VL-CDR-1: SEQ ID NO: 44, VL-CDR-2: SEQ ID NO: 47 and VL-CDR-3: SEQ ID NO: 52, (e) VH-CDR-1: SEQ ID NO: 26, VH-CDR-2: SEQ ID NO: 32, VH-CDR-3: SEQ ID NO: 39, VL-CDR-1: SEQ ID NO: 45, VL-CDR-2: SEQ ID NO: 47 and VL-CDR-3: SEQ ID NO: 53, (f) VH-CDR-1: SEQ ID NO: 23, VH-CDR-2: SEQ ID NO: 33, VH-CDR-3: SEQ ID NO: 37, VL-CDR-1: SEQ ID NO: 43, VL-CDR-2: SEQ ID NO: 48 and VL-CDR-3: SEQ ID NO: 54, and (g) VH-CDR-1: SEQ ID NO: 27, VH-CDR-2: SEQ ID NO: 34, VH-CDR-3: SEQ ID NO: 40, VL-CDR-1: SEQ ID NO: 46, VL-CDR-2: SEQ ID NO: 49 and VL-CDR-3: SEQ ID NO: 55. (a) VH-CDR-1: SEQ ID NO: 22, VH-CDR-2: SEQ ID NO: 28, VH-CDR-3: SEQ ID NO: 35, VL-CDR-1: SEQ ID NO: 41, VL-CDR-2: SEQ ID NO: 47 and VL-CDR-3: SEQ ID NO: 50, (b) VH-CDR-1: SEQ ID NO: 23, VH-CDR-2: SEQ ID NO: 29, VH-CDR-3: SEQ ID NO: 36, VL-CDR-1: SEQ ID NO: 42, VL-CDR-2: SEQ ID NO: 47 and VL-CDR-3: SEQ ID NO: 50, (c) VH-CDR-1: SEQ ID NO: 24, VH-CDR-2: SEQ ID NO: 30, VH-CDR-3: SEQ ID NO: 37, VL-CDR-1: SEQ ID NO: 43, VL-CDR-2: SEQ ID NO: 48 and VL-CDR-3: SEQ ID NO: 51, (d) VH-CDR-1: SEQ ID NO: 25, VH-CDR-2: SEQ ID NO: 31, VH-CDR-3: SEQ ID NO: 38, VL-CDR-1: SEQ ID NO: 44, VL-CDR-2: SEQ ID NO: 47 and VL-CDR-3: SEQ ID NO: 52, (e) VH-CDR-1: SEQ ID NO: 26, VH-CDR-2: SEQ ID NO: 32, VH-CDR-3: SEQ ID NO: 39, VL-CDR-1: SEQ ID NO: 45, VL-CDR-2: SEQ ID NO: 47 and VL-CDR-3: SEQ ID NO: 53, (f) VH-CDR-1: SEQ ID NO: 23, VH-CDR-2: SEQ ID NO: 33, VH-CDR-3: SEQ ID NO: 37, VL-CDR-1: SEQ ID NO: 43, VL-CDR-2: SEQ ID NO: 48 and VL-CDR-3: SEQ ID NO: 54, and (g) VH-CDR-1: SEQ ID NO: 27, VH-CDR-2: SEQ ID NO: 34, VH-CDR-3: SEQ ID NO: 40, VL-CDR-1: SEQ ID NO: 46, VL-CDR-2: SEQ ID NO: 49 and VL-CDR-3: SEQ ID NO: 55.
A copolymer formed from a reactive mixture comprising radically polymerizable components comprising a multi-functional (meth)acrylamide monomer having at least one siloxane bond and at least two (meth)acrylamide groups within a molecule and a mono-functional linear silicone (meth)acrylamide monomer of formula Where R q comprises a (meth)acrylamide group containing no silicon atom; R a to R e contain no silicon atoms, and may be independently selected from substituted or unsubstituted alkyl groups having 1 to 20 carbon atoms, or substituted or unsubstituted aryl groups having 6 to 20 carbon atoms, and n represents an integer of 1 or greater; wherein; the multi-functional (meth)acrylamide monomer is present in an amount of 0.1 part by mass to 20 parts by mass.
A subterranean completion assembly extending from a surface, comprising: a screen assembly supported by a packer; an inner string assembly extending through said packer and further comprising a setting tool for said packer and a crossover tool; said inner string assembly movable into a plurality of positions with respect to said packer when said packer is set, one of said positions for use of said crossover to deliver gravel to a lower annulus outside said screens while taking returns to an upper annulus around said inner string assembly and above said packer; at least one screen sensor disposed adjacent said screen and communicating to the surface at least one signal indicative of the distribution of gravel in said lower annulus in real time; characterized by at least one inner string assembly sensor disposed in said upper annulus adjacent said packer and communicating to the surface at least one signal indicative of relative movement of said inner string assembly with respect to said set packer in real time; said inner string assembly sensor comprising an inner string assembly fiber optic cable mounted above said packer; said inner string assembly fiber optic cable being wound on said inner string assembly and being secured to it so that relative movement, of said inner string assembly with respect to said packer, creates stress that is sensed in said inner string assembly fiber optic cable and communicated to the surface. a screen assembly supported by a packer; an inner string assembly extending through said packer and further comprising a setting tool for said packer and a crossover tool; said inner string assembly movable into a plurality of positions with respect to said packer when said packer is set, one of said positions for use of said crossover to deliver gravel to a lower annulus outside said screens while taking returns to an upper annulus around said inner string assembly and above said packer; at least one screen sensor disposed adjacent said screen and communicating to the surface at least one signal indicative of the distribution of gravel in said lower annulus in real time; characterized by at least one inner string assembly sensor disposed in said upper annulus adjacent said packer and communicating to the surface at least one signal indicative of relative movement of said inner string assembly with respect to said set packer in real time; said inner string assembly sensor comprising an inner string assembly fiber optic cable mounted above said packer; said inner string assembly fiber optic cable being wound on said inner string assembly and being secured to it so that relative movement, of said inner string assembly with respect to said packer, creates stress that is sensed in said inner string assembly fiber optic cable and communicated to the surface.
A long bone fracture reduction robot comprising a machine base and multiple sets of electro-hydraulic drivers, wherein a support capable of moving up and down is slidably connected on the machine base, and a six-degree-of-freedom parallel robot is arranged on the support; the six-degree-of-freedom parallel robot comprises multiple first hydraulic cylinders, the number of the first hydraulic cylinders is the same as the number of the electro-hydraulic drivers, and each electro-hydraulic driver comprises a driving motor and a second hydraulic cylinder, wherein the driving motor is linked to the second hydraulic cylinder, and the second hydraulic cylinder is in a fluid connection with a corresponding first hydraulic cylinder, long bone fixing frames are arranged on each of the support and the six-degree-of-freedom parallel robot, and the six-degree-of- freedom parallel robot adjusts the position of the long bone fixing frames using the multiple first hydraulic cylinders.
A composition in unit dose form comprising: asiaticosides in an amount of 20-80 mg, wherein the asiaticosides are derived from Centella asiatica extract; d-α-tocopherol succinate in an amount of 40-200 mg; ginsenosides in an amount of 4-20 mg, wherein the ginsenosides are derived from Ginseng root extract; L-selenomethionine in an amount of 10-50 mcg, and; α-lipoic acid in an amount of 25-200 mg; wherein the asiaticosides are present in an amount of 20% w/w or less of the composition. asiaticosides in an amount of 20-80 mg, wherein the asiaticosides are derived from Centella asiatica extract; d-α-tocopherol succinate in an amount of 40-200 mg; ginsenosides in an amount of 4-20 mg, wherein the ginsenosides are derived from Ginseng root extract; L-selenomethionine in an amount of 10-50 mcg, and; α-lipoic acid in an amount of 25-200 mg;
A method of mechanically contacting a flexible stamp to a substrate, the method comprising the steps of: - (a) forming in the flexible stamp an at least partial stamp bulge (150; 170) having a stamp bulge portion; - (b) positioning the flexible stamp with respect to the substrate, wherein the stamp bulge portion is either a partial stamp bulge portion at a first non-zero distance to the substrate without contact with the substrate and closer to the substrate than a portion of the flexible stamp outside the partial stamp bulge portion or a full stamp bulge portion in contact with the substrate; - (c) measuring a lateral alignment between the stamp bulge portion and the substrate using a flexible stamp feature located in the stamp bulge portion and a substrate feature located on the substrate; - (d) determining whether adjustment of the lateral alignment is needed, while the stamp bulge portion is kept in place; - (e) if adjustment of the lateral alignment is needed, making a lateral adjustment by lateral translation of at least the stamp bulge portion relative to the substrate, either while maintaining the partial stamp bulge portion in place, or after retracting the full stamp bulge portion to a partial stamp bulge portion; and - (f) if adjustment of the lateral alignment is not needed, or, after the lateral adjustment has been made in step (e), if there is a partial stamp bulge portion in place advancing the stamp bulge portion towards the substrate to form a full stamp bulge portion in contact with the substrate. - (a) forming in the flexible stamp an at least partial stamp bulge (150; 170) having a stamp bulge portion; - (b) positioning the flexible stamp with respect to the substrate, wherein the stamp bulge portion is either a partial stamp bulge portion at a first non-zero distance to the substrate without contact with the substrate and closer to the substrate than a portion of the flexible stamp outside the partial stamp bulge portion or a full stamp bulge portion in contact with the substrate; - (c) measuring a lateral alignment between the stamp bulge portion and the substrate using a flexible stamp feature located in the stamp bulge portion and a substrate feature located on the substrate; - (d) determining whether adjustment of the lateral alignment is needed, while the stamp bulge portion is kept in place; - (e) if adjustment of the lateral alignment is needed, making a lateral adjustment by lateral translation of at least the stamp bulge portion relative to the substrate, either while maintaining the partial stamp bulge portion in place, or after retracting the full stamp bulge portion to a partial stamp bulge portion; and - (f) if adjustment of the lateral alignment is not needed, or, after the lateral adjustment has been made in step (e), if there is a partial stamp bulge portion in place advancing the stamp bulge portion towards the substrate to form a full stamp bulge portion in contact with the substrate.
A composition for characterizing a plurality of analytes, wherein the composition comprises a partition comprising a plurality of barcode molecules and a plurality of analytes, wherein: (i) a first individual barcode molecule of the plurality of barcoded molecules comprises a first nucleic acid barcode sequence and a target-specific primer; (ii) a second individual barcode molecule of the plurality of barcode molecules comprises a second nucleic acid barcode sequence and a poly-T primer; (iii) the first individual barcode molecule and the second individual barcode molecule are coupled to the same bead; and (iv) the first nucleic acid barcode sequence and the second nucleic acid barcode sequence are identical and associated with the given partition. (i) a first individual barcode molecule of the plurality of barcoded molecules comprises a first nucleic acid barcode sequence and a target-specific primer; (ii) a second individual barcode molecule of the plurality of barcode molecules comprises a second nucleic acid barcode sequence and a poly-T primer; (iii) the first individual barcode molecule and the second individual barcode molecule are coupled to the same bead; and (iv) the first nucleic acid barcode sequence and the second nucleic acid barcode sequence are identical and associated with the given partition.
A method for controlling an apparatus configured to perform a plurality of actions, the method comprising the steps of: - establishing a communication channel between the apparatus and a smart card embedding a biometric sensor, wherein the biometric sensor is a fingerprint sensor, - retrieving, through the communication channel, a value reflecting non-biometric data captured by the biometric sensor, wherein the non-biometric data are data which are not intrinsic to the nature of a user's body but correspond to an action of the user on the biometric sensor and reflect a detection of a predefined movement on the biometric sensor, a duration of an interaction between the user and the biometric sensor, an activation of a specific part of the biometric sensor by the user or a number or frequency of an interaction between the user and the biometric sensor; and - identifying and performing, by the apparatus, one action of said plurality of actions depending on said value. - establishing a communication channel between the apparatus and a smart card embedding a biometric sensor, wherein the biometric sensor is a fingerprint sensor, - retrieving, through the communication channel, a value reflecting non-biometric data captured by the biometric sensor, wherein the non-biometric data are data which are not intrinsic to the nature of a user's body but correspond to an action of the user on the biometric sensor and reflect a detection of a predefined movement on the biometric sensor, a duration of an interaction between the user and the biometric sensor, an activation of a specific part of the biometric sensor by the user or a number or frequency of an interaction between the user and the biometric sensor; and - identifying and performing, by the apparatus, one action of said plurality of actions depending on said value.
A process for producing a powder which comprises hydrolyzing an alkoxysilane to obtain a silica gel having an average particle diameter of from 10 to 500 μm, bringing the silica gel into contact with at least one of helium and hydrogen gas at a temperature of from 400 °C to 1,300 °C, and heat-treating the silica gel at a temperature of 1,000 °C or higher for from 10 to 50 hours in an oxygen-containing atmosphere before or after bringing the silica gel into contact with at least one of helium and hydrogen gas.
(amended) A method for producing a composite material structure, the method comprising: a film attachment step of attaching a protective film to a molding member; a molding step of attaching a composite material which is a heating target to the molding member from above the protective film, accommodating the molding member in a pressure container, and molding a molded article; a molded article removal step of removing the molded article from the molding member to which the protective film is attached; and a painting step of directly painting a surface of the molded article which is mold released from the protective film, without performing sanding on the surface, wherein the protective film is a heat-resistance mold release film having a fluorine content of less than 0.1%. a film attachment step of attaching a protective film to a molding member; a molding step of attaching a composite material which is a heating target to the molding member from above the protective film, accommodating the molding member in a pressure container, and molding a molded article; a molded article removal step of removing the molded article from the molding member to which the protective film is attached; and a painting step of directly painting a surface of the molded article which is mold released from the protective film, without performing sanding on the surface, wherein the protective film is a heat-resistance mold release film having a fluorine content of less than 0.1%.
A coaxial compression driver comprising: - a housing; - a first vibrating membrane for relatively lower frequencies housed in the housing, wherein the first vibrating membrane faces a first compression chamber in communication with a first acoustic conduit; - a second vibrating membrane for relatively higher frequencies housed in the housing, wherein the second vibrating membrane faces a second compression chamber in communication with a second acoustic conduit; wherein: - the first vibrating membrane and the second vibrating membrane are arranged in the housing coaxial or substantially coaxial with respect to each other; - the first acoustic conduit and the second acoustic conduit converge into a common output acoustic conduit; characterized in that: - the compression driver comprises a passive low pass filter at least partially housed in the first acoustic conduit; - the passive low pass filter is axially interposed between the first vibrating membrane and the second vibrating membrane. - a housing; - a first vibrating membrane for relatively lower frequencies housed in the housing, wherein the first vibrating membrane faces a first compression chamber in communication with a first acoustic conduit; - a second vibrating membrane for relatively higher frequencies housed in the housing, wherein the second vibrating membrane faces a second compression chamber in communication with a second acoustic conduit; - the first vibrating membrane and the second vibrating membrane are arranged in the housing coaxial or substantially coaxial with respect to each other; - the first acoustic conduit and the second acoustic conduit converge into a common output acoustic conduit; - the compression driver comprises a passive low pass filter at least partially housed in the first acoustic conduit; - the passive low pass filter is axially interposed between the first vibrating membrane and the second vibrating membrane.
A safety system having a safety switch for monitoring a safe protective device status of a movable protective device, having a base housing that comprises at least two part members (5, 6) that can be positioned with respect to one another, wherein a signal receiver is provided in one part member and a signal transmitter is provided in the other part member so that a safe state of the protective device is detectable by means of a control and evaluation unit, and having an interlocking device having an electromagnet and a retaining plate that is disposed opposite the electromagnet for locking or unlocking the protective device, wherein the control and evaluation unit is configured to unlock or lock the interlocking unit after checking and verifying the signal receiver, characterized in that a coil of the electromagnet forms a resonant circuit with the capacitor, with the control and evaluation unit being configured to control the resonant circuit cyclically by at least one pulse signal, and with the control and evaluation unit being configured to evaluate the pulse response from the resonant circuit and with at least one contact or a non-contact between the electromagnet and the retaining plate being detectable by the control and evaluation unit in dependence on the pulse response. and having an interlocking device having an electromagnet and a retaining plate that is disposed opposite the electromagnet for locking or unlocking the protective device, wherein the control and evaluation unit is configured to unlock or lock the interlocking unit after checking and verifying the signal receiver, characterized in that a coil of the electromagnet forms a resonant circuit with the capacitor, with the control and evaluation unit being configured to control the resonant circuit cyclically by at least one pulse signal, and with the control and evaluation unit being configured to evaluate the pulse response from the resonant circuit and with at least one contact or a non-contact between the electromagnet and the retaining plate being detectable by the control and evaluation unit in dependence on the pulse response.