mhurhangee/patent-ind-claim-en huggingface dataset:
A mixing apparatus that can be fitted to an electric motor assembly , the electric motor assembly being able to drive the mixing apparatus to rotate for mixing food ingredients, the mixing apparatus comprising: a connection part ; stirring rods extending from the connection part ; and, stirring bars ; wherein the positions at which the stirring bars are fitted to the stirring rods are selectively adjustable based on the type and quantity of food ingredients to be mixed, wherein each of the stirring rods includes a connection part extended horizontally from the connection part , a stirring part extended downward from the connection part , and the stirring bars are fitted to the stirring parts , wherein each of the stirring parts is provided with a plurality of positioning pieces , the positioning pieces protruding towards one side thereof to position the stirring bars relative to the stirring rods , wherein: the stirring bars and the stirring parts are detachable from each other; the stirring bars are provided with a plurality of assembly holes for the stirring parts to pass through; and, the stirring bars are elastically deformable to allow the positioning pieces to pass through the assembly holes . a connection part ; stirring rods extending from the connection part ; and, stirring bars ; wherein the positions at which the stirring bars are fitted to the stirring rods are selectively adjustable based on the type and quantity of food ingredients to be mixed, wherein each of the stirring rods includes a connection part extended horizontally from the connection part , a stirring part extended downward from the connection part , and the stirring bars are fitted to the stirring parts , wherein each of the stirring parts is provided with a plurality of positioning pieces , the positioning pieces protruding towards one side thereof to position the stirring bars relative to the stirring rods , the stirring bars and the stirring parts are detachable from each other; the stirring bars are provided with a plurality of assembly holes for the stirring parts to pass through; and, the stirring bars are elastically deformable to allow the positioning pieces to pass through the assembly holes .
Cleaning device for cleaning and thermal disinfection of items to be washed, comprising a washing chamber for receiving items to be cleaned, wherein the washing chamber is provided with a siphon bend for the drain, characterized in that the cleaning device further comprises at least one device for producing a cleaning foam, at least one device for distributing the cleaning foam in the interior of the washing chamber or a combination of the devices for producing and for distributing the cleaning foam, wherein the at least one device for producing and/or for distributing the cleaning foam is selected from at least one foam spray nozzle or from at least one foam lance , wherein the foam spray nozzle or the foam lance are arranged in the inside of the washing chamber in such a way that the cleaning foam is applicable directly onto the items to be washed, and wherein the foam spray nozzle or the foam lance are arranged and/or aligned in the interior of the washing chamber so that the cleaning foam is applicable directly to the inner walls of the washing chamber. wherein the at least one device for producing and/or for distributing the cleaning foam is selected from at least one foam spray nozzle or from at least one foam lance , wherein the foam spray nozzle or the foam lance are arranged in the inside of the washing chamber in such a way that the cleaning foam is applicable directly onto the items to be washed, and wherein the foam spray nozzle or the foam lance are arranged and/or aligned in the interior of the washing chamber so that the cleaning foam is applicable directly to the inner walls of the washing chamber.
An isolated canine influenza A virus, the influenza virus comprising a hemagglutinin (HA) polypeptide or a polynucleotide which encodes an HA polypeptide, wherein the HA polypeptide comprises the amino acid sequence shown in SEQ ID NO: 78, or a mature sequence thereof wherein the N-terminus amino acid signal sequence of a full-length sequence has been removed.
A waveguide device , comprising: a substrate having an upper surface and a first width; a cladding layer over the upper surface of the substrate, the cladding layer comprising a first material having a first refractive index, wherein the cladding layer has a second width that is less than the first width; and an optical core embedded in and surrounded by the cladding layer, the optical core comprising a second material having a second refractive index that is higher than the first refractive index such that an optical signal will propagate through the optical core; wherein the cladding layer that surrounds the optical core has a thickness configured to substantially confine acoustic waves to the cladding layer when the optical signal propagates through the optical core; wherein the waveguide device is an acoustic ridge or rib waveguide, and is configured to generate a counter-propagating Stokes wave when the optical signal propagates through the optical core. a substrate having an upper surface and a first width; a cladding layer over the upper surface of the substrate, the cladding layer comprising a first material having a first refractive index, wherein the cladding layer has a second width that is less than the first width; and an optical core embedded in and surrounded by the cladding layer, the optical core comprising a second material having a second refractive index that is higher than the first refractive index such that an optical signal will propagate through the optical core; wherein the cladding layer that surrounds the optical core has a thickness configured to substantially confine acoustic waves to the cladding layer when the optical signal propagates through the optical core; wherein the waveguide device is an acoustic ridge or rib waveguide, and is configured to generate a counter-propagating Stokes wave when the optical signal propagates through the optical core.
A method (1000-1004) for operating a wind turbine comprising a drive train comprising a generator and a rotor shaft mechanically connected with the generator and comprising an axis of rotation, and a rotor comprising rotor blades (22-22c), the rotor being mechanically connected with the rotor shaft and rotatable about the axis of rotation, the method (1000-1004) comprising: - determining that the generator is not operating in a power generating mode; the method being characterized in that it further comprises: - operating the rotor to move around a predefined desired angular orientation (α des ) with respect to the axis of rotation in an alternating fashion. - determining that the generator is not operating in a power generating mode; - operating the rotor to move around a predefined desired angular orientation (α des ) with respect to the axis of rotation in an alternating fashion.
An electrostatic discharge protected device for conducting a fluid, in particular a non-polar fluid, through at least one lumen , wherein the device comprises: a tubing having a hollow interior defining the at least one lumen ; wherein the tubing comprises an electrically conductive section configured for conducting electric charge, generated within the at least one lumen when the fluid flows through the at least one lumen , away from the at least one lumen , characterized in that the tubing comprises a chemically inert section against the fluid configured to suppress that the fluid dissolves any components out of the chemically inert section , the chemically inert section delimiting the entire lumen and forming an intermediate structure separating the at least one lumen from the electrically conductive section for preventing direct contact between the fluid and the electrically conductive section , and wherein the tubing comprises an exterior annular segment configured as the electrically conductive section , the chemically inert section being configured in terms of dimension and/or electric conductivity for electrically conducting the generated electric charge from the at least one lumen through the intermediate structure and towards the electrically conductive section . a tubing having a hollow interior defining the at least one lumen ; wherein the tubing comprises an electrically conductive section configured for conducting electric charge, generated within the at least one lumen when the fluid flows through the at least one lumen , away from the at least one lumen , characterized in that the tubing comprises a chemically inert section against the fluid configured to suppress that the fluid dissolves any components out of the chemically inert section , the chemically inert section delimiting the entire lumen and forming an intermediate structure separating the at least one lumen from the electrically conductive section for preventing direct contact between the fluid and the electrically conductive section , and wherein the tubing comprises an exterior annular segment configured as the electrically conductive section , the chemically inert section being configured in terms of dimension and/or electric conductivity for electrically conducting the generated electric charge from the at least one lumen through the intermediate structure and towards the electrically conductive section .
Method, comprising: a) providing a gas in a liquified state, b) guiding the gas provided in step a) through a first vaporizing means such that the gas is partly evaporated, c) guiding a first fraction of the gas from the first vaporizing means via a turbine to a consumer process, and guiding a second fraction of the gas from the first vaporizing means via a second vaporizing means and the turbine to the consumer process, characterized in that upon leaving the first vaporizing means the second fraction comprises a greater percentage of the gas in the liquified state than the first fraction, and wherein the turbine drives a generator so as to generate electric energy. a) providing a gas in a liquified state, b) guiding the gas provided in step a) through a first vaporizing means such that the gas is partly evaporated, c) guiding a first fraction of the gas from the first vaporizing means via a turbine to a consumer process, and guiding a second fraction of the gas from the first vaporizing means via a second vaporizing means and the turbine to the consumer process, characterized in that upon leaving the first vaporizing means the second fraction comprises a greater percentage of the gas in the liquified state than the first fraction, and wherein the turbine drives a generator so as to generate electric energy.
A method comprising: capturing multiple ambient images of a scene using at least one camera of an electronic device and without using a flash of the electronic device ; capturing multiple flash images of the scene using the at least one camera of the electronic device and during firing of a pilot flash sequence using the flash; analyzing multiple pairs of images to estimate exposure differences obtained using the flash , wherein each pair of images includes one of the ambient images and one of the flash images that are both captured using a common camera exposure, and wherein different pairs of images are captured using different camera exposures; determining a flash strength for the scene based on the estimate of the exposure differences; and firing the flash based on the determined flash strength, wherein the method further comprises: capturing additional images (504;506;508) of the scene using the at least one camera of the electronic device , at least some of the additional images (504;506;508) captured at the determined flash strength and using different camera exposures; and blending the additional images (504;506;508) to produce a blended image of the scene. capturing multiple ambient images of a scene using at least one camera of an electronic device and without using a flash of the electronic device ; capturing multiple flash images of the scene using the at least one camera of the electronic device and during firing of a pilot flash sequence using the flash; analyzing multiple pairs of images to estimate exposure differences obtained using the flash , wherein each pair of images includes one of the ambient images and one of the flash images that are both captured using a common camera exposure, and wherein different pairs of images are captured using different camera exposures; determining a flash strength for the scene based on the estimate of the exposure differences; and firing the flash based on the determined flash strength, wherein the method further comprises: capturing additional images (504;506;508) of the scene using the at least one camera of the electronic device , at least some of the additional images (504;506;508) captured at the determined flash strength and using different camera exposures; and blending the additional images (504;506;508) to produce a blended image of the scene. capturing additional images (504;506;508) of the scene using the at least one camera of the electronic device , at least some of the additional images (504;506;508) captured at the determined flash strength and using different camera exposures; and blending the additional images (504;506;508) to produce a blended image of the scene.
A method for producing an extended fiber comprising a continuous metallic glass (MG) via thermal drawing and scale-down from a macroscale to a nanoscale, comprising the following successive steps - ) preparing a macroscopic scale first preform assembled from compatible materials for co-drawing, said first preform comprising a continuous initial metallic glass structure encased in a supporting first cladding made of a polymer or glass; - ) thermally drawing the first preform to produce a first extended fiber with said continuous initial metallic glass structure encased in said first cladding; characterized in that the thermal drawing step is performed at a temperature in the supercooled liquid region above the glass transition temperature of the metallic glass. - ) preparing a macroscopic scale first preform assembled from compatible materials for co-drawing, said first preform comprising a continuous initial metallic glass structure encased in a supporting first cladding made of a polymer or glass; - ) thermally drawing the first preform to produce a first extended fiber with said continuous initial metallic glass structure encased in said first cladding;
A lead-acid battery comprising: a positive electrode plate; a negative electrode plate; a separator interposed between the positive electrode plate and the negative electrode plate; and an electrolyte solution, wherein the separator includes a first rib on the negative electrode plate side and a second rib on the positive electrode plate side, an average height of the first rib is 0.05 mm or more and 0.40 mm or less, an average height of the second rib is 0.3 mm or more and 1.0 mm or less, the negative electrode plate contains a negative electrode material, and the negative electrode material contains graphite particles. a positive electrode plate; a negative electrode plate; a separator interposed between the positive electrode plate and the negative electrode plate; and an electrolyte solution, wherein the separator includes a first rib on the negative electrode plate side and a second rib on the positive electrode plate side, an average height of the first rib is 0.05 mm or more and 0.40 mm or less, an average height of the second rib is 0.3 mm or more and 1.0 mm or less, the negative electrode plate contains a negative electrode material, and the negative electrode material contains graphite particles.
A method for carrying out site-directed modification of a target DNA, the method comprising contacting the target DNA with: a) a complex comprising a Cas9 polypeptide and a guide RNA, wherein the guide RNA comprises a first segment comprising a nucleotide sequence that is complementary to a sequence in the target DNA and a second segment that binds to the Cas9 polypeptide; and b) a Rad51 polypeptide, wherein the Rad51 polypeptide enhances binding of the first segment to the target DNA, wherein the method is carried out in a living cell in vitro or in a cell-free system in vitro. a) a complex comprising a Cas9 polypeptide and a guide RNA, wherein the guide RNA comprises a first segment comprising a nucleotide sequence that is complementary to a sequence in the target DNA and a second segment that binds to the Cas9 polypeptide; and b) a Rad51 polypeptide, wherein the Rad51 polypeptide enhances binding of the first segment to the target DNA, wherein the method is carried out in a living cell in vitro or in a cell-free system in vitro.
An infant formula comprising a proteinaceous composition, wherein the formula: a) comprises 2.8-4.3 g phenylalanine per 100 g protein; and b) comprises 39-46 mg phenylalanine per 100 mL formula; and c) comprises a weight ratio of phenylalanine to the sum of isoleucine, leucine, valine, tryptophan, tyrosine, and methionine of from 1:7.237 (0.138) to 1:10.810 (0.0925); and d) comprises a weight ratio of tryptophan to the sum of isoleucine, leucine, valine, phenylalanine, tyrosine, and methionine of from 1:30.327 (0.0330) to 1:45.304 (0.0221); and e) comprises a ratio of phenylalanine to threonine of from 1:0.959 (1.042) to 1:1.433 (0.698), said formula comprising 5.0-7.8 g isoleucine per 100 g protein, 6.6-10.4 g leucine per 100 g protein, 0.7-1.1 g tryptophan per 100 g protein, 5.0-7.8 g tyrosine per 100 g protein, 5.2-8.1 g valine per 100 g protein, 1.8-2.8 g methionine per 100 g protein; and 3.2-5.0 g threonine per 100 g protein, and wherein the infant formula comprises a protein level of: 0.9 to 1.4 g of protein per 100 mL of infant formula; or 1.4 to 2.1 g of protein per 100 kcal of infant formula. a) comprises 2.8-4.3 g phenylalanine per 100 g protein; and b) comprises 39-46 mg phenylalanine per 100 mL formula; and c) comprises a weight ratio of phenylalanine to the sum of isoleucine, leucine, valine, tryptophan, tyrosine, and methionine of from 1:7.237 (0.138) to 1:10.810 (0.0925); and d) comprises a weight ratio of tryptophan to the sum of isoleucine, leucine, valine, phenylalanine, tyrosine, and methionine of from 1:30.327 (0.0330) to 1:45.304 (0.0221); and e) comprises a ratio of phenylalanine to threonine of from 1:0.959 (1.042) to 1:1.433 (0.698), 0.9 to 1.4 g of protein per 100 mL of infant formula; or 1.4 to 2.1 g of protein per 100 kcal of infant formula.
Machine for preparing beverages from at least one edible aromatic substance, including coffee of the espresso type and similar, presenting: - a plurality of electrical energy consumers , including fluid compression means and fluid heating means , - at least one internal energy source , - means for connecting to at least one external energy source , and - an energy management device adapted so it can regulate the operation at least of said fluid compression means and fluid heating means , characterized in that said internal energy source presents a maximum nominal storage capacity of 120 Wh, preferentially of 80 Wh and a discharge capacity of at least 5 C, preferentially at least 10 C, and in that said energy management device is provided so that it regulates the operation of said energy consumers, including at least one of said fluid compression means and fluid heating means , by means of a control routine of the objective function type presenting at least one objective including minimization of total energy supplied to said energy consumers in each beverage extraction cycle, whereby the measurement of the energy consumption is based upon the measurement of the tension and intensity of current and of the heating temperature in the fluid heating means , and whereby the energy management device is provided so that actuates a variation of the frequency and/or of the velocity of the fluid compression means . - a plurality of electrical energy consumers , including fluid compression means and fluid heating means , - at least one internal energy source , - means for connecting to at least one external energy source , and - an energy management device adapted so it can regulate the operation at least of said fluid compression means and fluid heating means ,
An electronic expansion valve, comprising a valve needle and screw rod assembly , the valve needle and screw rod assembly comprising a valve needle , a valve needle sleeve , a washer portion , a spring and a screw rod assembly ; wherein the valve needle is fixedly connected to the valve needle sleeve , the valve needle sleeve comprises a peripheral wall portion and a fitting portion , and an inner diameter of the fitting portion is smaller than an inner diameter of the peripheral wall portion ; the screw rod assembly comprises a lower stop portion , a valve needle support portion and an upper stop portion , and the lower stop portion is configured to abut against the washer portion , characterised in that the valve needle support portion is configured to abut against the fitting portion of the valve needle sleeve ; the upper stop portion is configured to abut against the spring ; and in a case that the lower stop portion abuts against the washer portion , a distance between the valve needle support portion and the washer portion is D1, a distance between the valve needle support portion and an upper end of the fitting portion is D2, and D1≥D2. the valve needle is fixedly connected to the valve needle sleeve , the valve needle sleeve comprises a peripheral wall portion and a fitting portion , and an inner diameter of the fitting portion is smaller than an inner diameter of the peripheral wall portion ; the screw rod assembly comprises a lower stop portion , a valve needle support portion and an upper stop portion , and the lower stop portion is configured to abut against the washer portion , characterised in that the valve needle support portion is configured to abut against the fitting portion of the valve needle sleeve ; the upper stop portion is configured to abut against the spring ; and in a case that the lower stop portion abuts against the washer portion , a distance between the valve needle support portion and the washer portion is D1, a distance between the valve needle support portion and an upper end of the fitting portion is D2, and D1≥D2.
A method of providing location information of a group of mobile devices (20A-20C) of a wireless network (21-23) to a network node of the wireless network (21-23), the method comprising: repetitively transmitting, by at least one mobile device (20A-20C) of the group of mobile devices (20A-20C), a location information of the respective mobile device (20A-20C) at a respective reporting frequency (f A -f C ); wherein the respective reporting frequency (f A -f C ) of the respective mobile device (20A-20C) depends on an energy balance of the respective mobile device (20A-20C); receiving, by the at least one mobile device (20A-20C) and from the network node , a reporting configuration , wherein the reporting configuration comprises the reporting frequency (12A, f A -f C ) of the respective mobile device (20A-20C), characterized in that the reporting configuration for the respective mobile device (20A-20C) comprises a reporting start time of the respective mobile device (20A-20C), and the location information is transmitted by the at least one mobile device (20A-20C) in accordance with the reporting start time . repetitively transmitting, by at least one mobile device (20A-20C) of the group of mobile devices (20A-20C), a location information of the respective mobile device (20A-20C) at a respective reporting frequency (f A -f C ); characterized in that the reporting configuration for the respective mobile device (20A-20C) comprises a reporting start time of the respective mobile device (20A-20C), and the location information is transmitted by the at least one mobile device (20A-20C) in accordance with the reporting start time .