mhurhangee/patent-ind-claim-en huggingface dataset:
An information writing method , applied to a non-volatile dual in-line memory module, NVDIMM, wherein the NVDIMM comprises an NVDIMM controller and a non-volatile memory, NVM, and the method comprises: receiving (S201), by the NVDIMM controller, a sanitize command from a host, wherein the sanitize command is used to instruct the NVDIMM controller to sanitize data in the NVM by using a first write pattern, and the first write pattern is one of at least two patterns of writing information into the NVM, wherein the first write pattern is indicated in the sanitize command, and wherein the first write pattern is selected by the host based on a type of the NVM; and writing (S202), by the NVDIMM controller, information into the NVM according to the sanitize command; wherein the information that is written by the NVDIMM controller according to the instruction of the sanitize command is the same as information that is written into the NVM in a power-saving write pattern; and wherein the sanitize command is a command code in the NVDIMM-P protocol for a double data rate 5, DDR5, interface, or the sanitize command is a command code in the NVDIMM-P protocol for a double data rate 4, DDR4, interface. receiving (S201), by the NVDIMM controller, a sanitize command from a host, wherein the sanitize command is used to instruct the NVDIMM controller to sanitize data in the NVM by using a first write pattern, and the first write pattern is one of at least two patterns of writing information into the NVM, wherein the first write pattern is indicated in the sanitize command, and wherein the first write pattern is selected by the host based on a type of the NVM; and writing (S202), by the NVDIMM controller, information into the NVM according to the sanitize command; wherein the information that is written by the NVDIMM controller according to the instruction of the sanitize command is the same as information that is written into the NVM in a power-saving write pattern; and wherein the sanitize command is a command code in the NVDIMM-P protocol for a double data rate 5, DDR5, interface, or the sanitize command is a command code in the NVDIMM-P protocol for a double data rate 4, DDR4, interface.
A method of producing ultra-thin hot-rolled strip steel, comprising the following process steps: (A) Smelting step: scrap steel is delivered to an induction electric furnace, wherein an induction electric furnace technology is utilized to realize 100% scrap steel smelting; (B) Refining step: a ladle refining furnace and a ladle vacuum degassing furnace are used to refine the molten steel; (C) Continuous casting step: the refined molten steel is cast through a twin-roll thin strip continuous casting system to form a cast strip blank having a thickness of 1.6-2.5 mm; (D) Hot rolling step: the cast strip blank that has been cast in the continuous casting process is directly delivered to the single-stand hot rolling mill for rolling to form a hot rolled strip, wherein the thickness of the hot rolled strip is 0.8-1.5 mm; (E) Cooling and coiling step: the hot-rolled strip steel is subjected to atomization cooling treatment, and the temperature of the strip steel is controlled at 400-750 °C, followed by coiling; wherein the atomization cooling treatment adopts three-stage cooling, wherein cooling capacities of the three-stage cooling are 50-80°C/s, 20-50°C/s and 10-20°C/s in order. (A) Smelting step: scrap steel is delivered to an induction electric furnace, wherein an induction electric furnace technology is utilized to realize 100% scrap steel smelting; (B) Refining step: a ladle refining furnace and a ladle vacuum degassing furnace are used to refine the molten steel; (C) Continuous casting step: the refined molten steel is cast through a twin-roll thin strip continuous casting system to form a cast strip blank having a thickness of 1.6-2.5 mm; (D) Hot rolling step: the cast strip blank that has been cast in the continuous casting process is directly delivered to the single-stand hot rolling mill for rolling to form a hot rolled strip, wherein the thickness of the hot rolled strip is 0.8-1.5 mm; (E) Cooling and coiling step: the hot-rolled strip steel is subjected to atomization cooling treatment, and the temperature of the strip steel is controlled at 400-750 °C, followed by coiling; wherein the atomization cooling treatment adopts three-stage cooling, wherein cooling capacities of the three-stage cooling are 50-80°C/s, 20-50°C/s and 10-20°C/s in order.
Berberine for use in a method for improving gut microbiota population in a subject having obesity or insulin resistance, wherein improving the gut microbiota population is characterized by selectively increasing a first gut microbiota population while simultaneously decreasing a second gut microbiota population to increase short-chain fatty acid level in the subject or reduce subject insulin resistance, the method comprising administering to the subject berberine at a dosage of 100mg/Kg body weight, wherein the first gut microbiota population comprises Allobaculum, Bacteroides, Blautia, Butyricicoccus, Dorea, Holdemania, Lawsonia, Parabacteroides, Phascolarctobacterium, Sedimentibacter, or a combination thereof, and wherein the second gut microbiota population comprises Alistipes, Anaeroplasma, Barnesiella, Bifidobacterium, Butyricimonas, Butyrivibrio, Coprococcus, Fastidiosipila, Helicobacter, Hespellia, Marvinbryantia, Oribacterium, Oscillibacter, Prevotella, Roseburia, Ruminococcus, or a combination thereof.
A harness comprising a belt and a pair of thigh loops connected by a connector forming a ventral suspension point, connector wherein: - the connector defines a first ring and a second ring distinct from one another, the first ring being an openable ring and connecting the belt to the pair of thigh loops , - the first ring and the second ring can be fixedly mounted on each other, - the first ring and the second ring respectively have a first median longitudinal plane and a second median longitudinal plane, the first median longitudinal plane being perpendicular to the second median longitudinal plane, wherein the connector comprises a body and a closure element removably mounted relative to the body for opening and closing the first ring , at least one fastening screw securing the closure element to the body , wherein the closure element forms the entire second ring so that the second ring is removable relative to the first ring , wherein the body is in the form of a hook with opposite first and second ends , the body connecting the pair of thigh loops and the belt , the closure element being installed between first and second ends of the body to close the hook, and wherein the body defines at least one first through hole and the closure element defines at least one second through hole , the at least one fastening screw penetrating through the at least one first through hole and the at least one second through hole to secure the closure element with the body and close the first openable ring . - the connector defines a first ring and a second ring distinct from one another, the first ring being an openable ring and connecting the belt to the pair of thigh loops , - the first ring and the second ring can be fixedly mounted on each other, - the first ring and the second ring respectively have a first median longitudinal plane and a second median longitudinal plane, the first median longitudinal plane being perpendicular to the second median longitudinal plane, wherein the connector comprises a body and a closure element removably mounted relative to the body for opening and closing the first ring , at least one fastening screw securing the closure element to the body , wherein the closure element forms the entire second ring so that the second ring is removable relative to the first ring , wherein the body is in the form of a hook with opposite first and second ends , the body connecting the pair of thigh loops and the belt , the closure element being installed between first and second ends of the body to close the hook, and wherein the body defines at least one first through hole and the closure element defines at least one second through hole , the at least one fastening screw penetrating through the at least one first through hole and the at least one second through hole to secure the closure element with the body and close the first openable ring .
A method of preparation for psicose comprising: separating psicose-conversion product with a simulated moving bed (SMB) chromatography to obtain a psicose fraction and a fructose raffinate, providing the fructose raffinate into a separation step of fructose preparation to prepare fructose-containing raw material, and conducting psicose conversion reaction by using the fructose-containing raw material, characterized in that , the separation step of fructose preparation comprises at least one step selected from the group consisting of an ion purification step and a SMB chromatography, and the fructose raffinate is provided to one or more kinds of steps selected from the group consisting of the ion purification step and the SMB chromatography. separating psicose-conversion product with a simulated moving bed (SMB) chromatography to obtain a psicose fraction and a fructose raffinate, providing the fructose raffinate into a separation step of fructose preparation to prepare fructose-containing raw material, and conducting psicose conversion reaction by using the fructose-containing raw material, characterized in that , the separation step of fructose preparation comprises at least one step selected from the group consisting of an ion purification step and a SMB chromatography, and the fructose raffinate is provided to one or more kinds of steps selected from the group consisting of the ion purification step and the SMB chromatography.
A pharmaceutical composition comprising pinitol as an active ingredient for use in the prevention or treatment of female menopause symptoms, wherein the female menopause symptoms are hot flushes, irregular menstrual cycles, vaginal dryness, fatigue, hair loss, sleeping disorder, concentration disorder, memory loss, dizziness, urinary incontinence, abdominal bloating, allergies, irregular heartbeat, depression, anxiety, nervousness, or panic disorder symptoms.
Valve fitting for filling a sanitary cistern , in particular a concealed cistern, with a connecting element for connecting the valve fitting to a water supply line, a shut-off valve with an actuating element for manually shutting off the inflow from the water supply line and a float-operated filling valve , wherein the connecting element , the shut-off valve and the filling valve can be detachably connected to each other to form a water path so that water can be supplied from the water supply line into the interior of the cistern , and wherein a float connected to the filling valve can be moved by a rising water level in the cistern and the filling valve closes when a predetermined or predeterminable water level is reached and thus interrupts the inflow via the water path, wherein the actuating element of the shut-off valve is rotatable about a substantially horizontal axis of rotation (M) in the functional position of the float , wherein the shut-off valve is designed to be functionally insertable in the valve fitting in at least two different positions, wherein the connecting element is connected in one of the positions to an opening in a left cistern side wall (9. 1) and in another of the positions at an opening in a right cistern side wall (9. 2), and wherein the actuating element in the at least two positions of the shut-off valve is accessible from the front side of the valve fitting in its position of use in each case, characterised in that in that the filling valve is detachably connected to the shut-off valve via a pipe angle piece , the shut-off valve being detachably connected to the pipe angle piece and the connecting element by means of plug connections, and the respective plug connection being provided with a securing element .
A method, comprising: generating in a modular laser diode package a first plurality of pump beams from respective diode lasers at a first wavelength range between of 900 nm to 930 nm; generating in the modular laser diode package a second plurality of pump beams from respective diode lasers at a second wavelength range between 970 nm to 980 nm; wherein the modular laser diode package comprises a thermally conductive housing ; polarization multiplexing the first plurality of pump beams with a first polarization multiplexer situated to produce a first set of polarization multiplexed pump beams by receiving and combining a first subset of the first plurality of pump beams having a first polarization state and a second subset of the first plurality of pump beams having a second polarization state; polarization multiplexing the second plurality of pump beams with a second multiplexer situated to produce a second set of polarization multiplexed pump beams by receiving and combining a first subset of the second plurality of pump beams having a first polarization state and a second subset of the second plurality of pump beams having a second polarization state; combining in the modular laser diode package the first set of polarization multiplexed pump beams with the second set of polarization multiplexed pump beams to form a combined pump beam having a brightness of 3.0 W/(mm · mrad) 2 or greater; and directing the combined pump beam to a pump fiber . generating in a modular laser diode package a first plurality of pump beams from respective diode lasers at a first wavelength range between of 900 nm to 930 nm; generating in the modular laser diode package a second plurality of pump beams from respective diode lasers at a second wavelength range between 970 nm to 980 nm; wherein the modular laser diode package comprises a thermally conductive housing ; polarization multiplexing the first plurality of pump beams with a first polarization multiplexer situated to produce a first set of polarization multiplexed pump beams by receiving and combining a first subset of the first plurality of pump beams having a first polarization state and a second subset of the first plurality of pump beams having a second polarization state; polarization multiplexing the second plurality of pump beams with a second multiplexer situated to produce a second set of polarization multiplexed pump beams by receiving and combining a first subset of the second plurality of pump beams having a first polarization state and a second subset of the second plurality of pump beams having a second polarization state; combining in the modular laser diode package the first set of polarization multiplexed pump beams with the second set of polarization multiplexed pump beams to form a combined pump beam having a brightness of 3.0 W/(mm · mrad) 2 or greater; and directing the combined pump beam to a pump fiber .
A drilling system, comprising: a plurality of robotic drilling units mounted in an array, each drilling unit having a drilling unit base configured for positioning inside a barrel section , which barrel section is an engine inlet inner barrel section configured as a composite sandwich structure having an inner face sheet; each one of the robotic drilling units having a drill end effector configured for positioning inside said barrel section; and the robotic drilling units configured to be simultaneously operable in synchronized movement with one another for simultaneously drilling a plurality of perforations into the inner face sheet using drill end effectors configured to provide a predetermined percent-open-area of the inner face sheet; wherein: the robotic drilling units are configured to index a hole pattern of perforations to one or more cell walls of a honeycomb core of the composite sandwich structure and the robotic drilling units are configured to form the hole pattern in the inner face sheet such that the perforations are located at a spaced distance from the cell walls of the honeycomb core. a plurality of robotic drilling units mounted in an array, each drilling unit having a drilling unit base configured for positioning inside a barrel section , which barrel section is an engine inlet inner barrel section configured as a composite sandwich structure having an inner face sheet; each one of the robotic drilling units having a drill end effector configured for positioning inside said barrel section; and the robotic drilling units configured to be simultaneously operable in synchronized movement with one another for simultaneously drilling a plurality of perforations into the inner face sheet using drill end effectors configured to provide a predetermined percent-open-area of the inner face sheet;
Method for assembling a railway vehicle structure comprising a plurality of structural panels , the method being characterised in that it comprises the following successive steps: - providing at least two railway vehicle structural panels which are to be assembled, each structural panel comprising at least one assembly surface for assembly with the other structural panel , at least one of the assembly surfaces being provided with rough areas , - applying a layer of high-performance resin to at least one of the assembly surfaces , the high-performance resin being capable of permanently withstanding compressive stresses greater than 90 MPa and having moduli of elasticity in compression greater than 2000 MPa, - placing the assembly surfaces of the two structural panels facing one another so that the layer of high-performance resin is sandwiched between the assembly surfaces , - polymerising the high-performance resin to form a railway vehicle structure . - providing at least two railway vehicle structural panels which are to be assembled, each structural panel comprising at least one assembly surface for assembly with the other structural panel , at least one of the assembly surfaces being provided with rough areas , - applying a layer of high-performance resin to at least one of the assembly surfaces , the high-performance resin being capable of permanently withstanding compressive stresses greater than 90 MPa and having moduli of elasticity in compression greater than 2000 MPa, - placing the assembly surfaces of the two structural panels facing one another so that the layer of high-performance resin is sandwiched between the assembly surfaces , - polymerising the high-performance resin to form a railway vehicle structure .
A frequency band switching method, comprising: determining , by a terminal device, according to transmission power information of said terminal device, whether an uplink operation frequency band needs to be switched, when uplink operation of the terminal device is performed in a first frequency band; performing , by the terminal device, beam scanning on a second frequency band to switch to and reporting, by the terminal device, a result of the beam scanning to a communication node; and switching , by the terminal device, the uplink operation frequency band of the terminal device from the first frequency band to the second frequency band according to said result of the beam scanning; wherein said method is characterized in that the step of switching, by the terminal device, the uplink operation frequency band of the terminal device from the first frequency band to the second frequency band according to the result of the beam scanning comprises: initiating, by the terminal device, an access to the communication node in a direction of a strongest beam in the second frequency band according to the result of the beam scanning. determining , by a terminal device, according to transmission power information of said terminal device, whether an uplink operation frequency band needs to be switched, when uplink operation of the terminal device is performed in a first frequency band; performing , by the terminal device, beam scanning on a second frequency band to switch to and reporting, by the terminal device, a result of the beam scanning to a communication node; and switching , by the terminal device, the uplink operation frequency band of the terminal device from the first frequency band to the second frequency band according to said result of the beam scanning; wherein said method is characterized in that the step of switching, by the terminal device, the uplink operation frequency band of the terminal device from the first frequency band to the second frequency band according to the result of the beam scanning comprises: initiating, by the terminal device, an access to the communication node in a direction of a strongest beam in the second frequency band according to the result of the beam scanning.
A process for preparing a composition comprising less than 15 wt% solvent, said composition comprising at least one water-insoluble antiviral drug and at least one water-soluble carrier material comprising a water-soluble polymer selected from polyvinylalcohol, polyethylene glycol, polyvinylpyrrolidone, poly(2-ethyl-2-oxazoline), hydroxypropylcellulose, hydroxypropylmethylcellulose and alginate, and mixtures thereof, wherein the water-insoluble antiviral drug is dispersed through the water-soluble carrier material in nano-disperse form, which process comprises the steps of: (a1) forming an emulsion comprising: (i) a solution of the water-insoluble antiviral drug in a water-immiscible solvent for the same, and (ii) a solution of the water-soluble carrier material in an aqueous solvent, or (a2) providing a single-phase solution comprising: (i) at least one non-aqueous solvent, (ii) an aqueous solvent, (iii) a water-soluble carrier material dissolved in the mixture of (i) and (ii), and (iv) a water-insoluble antiviral drug dissolved in the mixture of (i) and (ii), but not (ii) alone, and, (b) spray-drying or freeze-drying the emulsion to remove the aqueous solvent and the water-immiscible solvent or the single phase solution to remove the aqueous solvent and the at least one non-aqueous solvent to obtain the composition comprising a nano-dispersion of the antiviral drug in the water-soluble carrier material. (a1) forming an emulsion comprising: (i) a solution of the water-insoluble antiviral drug in a water-immiscible solvent for the same, and (ii) a solution of the water-soluble carrier material in an aqueous solvent, or (i) a solution of the water-insoluble antiviral drug in a water-immiscible solvent for the same, and (ii) a solution of the water-soluble carrier material in an aqueous solvent, (a2) providing a single-phase solution comprising: (i) at least one non-aqueous solvent, (ii) an aqueous solvent, (iii) a water-soluble carrier material dissolved in the mixture of (i) and (ii), and (iv) a water-insoluble antiviral drug dissolved in the mixture of (i) and (ii), but not (ii) alone, and, (i) at least one non-aqueous solvent, (ii) an aqueous solvent, (iii) a water-soluble carrier material dissolved in the mixture of (i) and (ii), and (iv) a water-insoluble antiviral drug dissolved in the mixture of (i) and (ii), but not (ii) alone, (b) spray-drying or freeze-drying the emulsion to remove the aqueous solvent and the water-immiscible solvent or the single phase solution to remove the aqueous solvent and the at least one non-aqueous solvent to obtain the composition comprising a nano-dispersion of the antiviral drug in the water-soluble carrier material.