mhurhangee/patent-ind-claim-en huggingface dataset:
A device for picking up particles from a water surface, in particular dirt particles, with a floating body , in which a particle separating chamber is formed, into which particle-containing water flows in via an inflow opening during operation, and out of which water at least partially freed of the particles flows via an outflow opening , and in which particles are separated from the inflowing water according to the principle of a hydrodynamic separation, wherein incline or slope members belonging to a separation device for separating the particles are set up to separate the particles to be separated from the particle separating chamber into adjacently arranged particle accumulating chambers , in which the particles are concentrated, characterized in that - for respective opening and closing purposes, the inflow opening is provided with an inflow flap assembly and the outflow opening is provided with an outflow flap assembly, and - the particle separating chamber and particle collecting chamber form a closed chamber , which is hermetically sealed off from the environment, and whose internal pressure can be set with the help of a pressure regulating device , so as to in this way set a fill level of the particle-containing water in the particle separating chamber , as a result of which the fill level is set relative to the incline or slope members , which in turn influences the separation of dirt particles from the particle separating chamber into the particle accumulating chambers . - for respective opening and closing purposes, the inflow opening is provided with an inflow flap assembly and the outflow opening is provided with an outflow flap assembly, and - the particle separating chamber and particle collecting chamber form a closed chamber , which is hermetically sealed off from the environment, and whose internal pressure can be set with the help of a pressure regulating device , so as to in this way set a fill level of the particle-containing water in the particle separating chamber , as a result of which the fill level is set relative to the incline or slope members , which in turn influences the separation of dirt particles from the particle separating chamber into the particle accumulating chambers .
Layer transfer method comprising the following steps: a step of providing an initial substrate ; a step of providing an intermediate substrate ; a first step of connecting the intermediate substrate and the initial substrate ; a step of thinning the initial substrate after it has been connected to the intermediate substrate ; a step of providing a final substrate ; a second step of connecting the thinned initial substrate and the final substrate ; a step of detaching the intermediate substrate after the second connecting step ; characterized in that the intermediate substrate comprises silicon on the surface intended to be connected to the initial substrate ; the initial substrate does not comprise silicon on the surface intended to be connected to the intermediate substrate ; a first SOG type bonding layer , referred to as a temporary layer, comprising methylsiloxane in liquid state is deposited by spin coating on the surface of the initial substrate that does not comprise silicon and then a first heat treatment is carried out to densify this first bonding layer, referred to as the temporary layer, before the first connecting step; the second connecting step is carried out via a second SOG type bonding layer comprising silicate or methylsilsesquioxane in liquid state and deposited by spin coating followed by a second densification heat treatment; and in that the final substrate is designed such that it would deteriorate during application of a heat treatment exceeding 300°C. a step of providing an initial substrate ; a step of providing an intermediate substrate ; a first step of connecting the intermediate substrate and the initial substrate ; a step of thinning the initial substrate after it has been connected to the intermediate substrate ; a step of providing a final substrate ; a second step of connecting the thinned initial substrate and the final substrate ; a step of detaching the intermediate substrate after the second connecting step ; characterized in that the intermediate substrate comprises silicon on the surface intended to be connected to the initial substrate ; the initial substrate does not comprise silicon on the surface intended to be connected to the intermediate substrate ; a first SOG type bonding layer , referred to as a temporary layer, comprising methylsiloxane in liquid state is deposited by spin coating on the surface of the initial substrate that does not comprise silicon and then a first heat treatment is carried out to densify this first bonding layer, referred to as the temporary layer, before the first connecting step; the second connecting step is carried out via a second SOG type bonding layer comprising silicate or methylsilsesquioxane in liquid state and deposited by spin coating followed by a second densification heat treatment; and in that the final substrate is designed such that it would deteriorate during application of a heat treatment exceeding 300°C.
A control method for an aerosol generation apparatus, wherein the method is applied to the aerosol generation apparatus, the aerosol generation apparatus comprises a heater for heating an aerosol generation substrate to generate an aerosol, and the method comprises: detecting whether a user smokes according to a real-time voltage value and a preset voltage threshold of the heater; and being characterized in that when it is detected that the user smokes, calculating smoking duration when the real-time voltage value is greater than or equal to the preset voltage threshold; wherein the detecting whether the user smokes according to a real-time voltage value and a preset voltage threshold of the heater comprises: calculating an average voltage value in a preset time period according to the real-time voltage value; and if the average voltage value is greater than or equal to the preset voltage threshold, determining that the user smokes, and otherwise, determining that the user does not smoke. detecting whether a user smokes according to a real-time voltage value and a preset voltage threshold of the heater; and being characterized in that when it is detected that the user smokes, calculating smoking duration when the real-time voltage value is greater than or equal to the preset voltage threshold; wherein the detecting whether the user smokes according to a real-time voltage value and a preset voltage threshold of the heater comprises: calculating an average voltage value in a preset time period according to the real-time voltage value; and if the average voltage value is greater than or equal to the preset voltage threshold, determining that the user smokes, and otherwise, determining that the user does not smoke. calculating an average voltage value in a preset time period according to the real-time voltage value; and if the average voltage value is greater than or equal to the preset voltage threshold, determining that the user smokes, and otherwise, determining that the user does not smoke.
Process for preparing an oral delivery system for collagen peptides, suitable for administration to both human and non-human animals, the oral delivery system comprising a frozen dessert and a collagen peptide, the total amount of collagen peptide in the delivery system being less than or equal to 20% by weight of the delivery system, the process comprising the following steps: • adding the collagen peptides to the ingredients of a typical commercial ice cream product; • passing the mixture through either a single-stage, or a double-stage, homogenizer; • cooling and aging the homogenized mixture; • freezing the homogenized mixture by subjecting it to agitation, whipping and aeration to incorporate a selected amount of air, and to avoid the formation of large ice crystals in, or a stratification of, the product; wherein said homogenized mixture is rapidly cooled to a temperature comprised in the range from 0°C (32°F) to 4,5°C (40°F) and is then held in this temperature range for a period from 1 hour to 12 hours. • adding the collagen peptides to the ingredients of a typical commercial ice cream product; • passing the mixture through either a single-stage, or a double-stage, homogenizer; • cooling and aging the homogenized mixture; • freezing the homogenized mixture by subjecting it to agitation, whipping and aeration to incorporate a selected amount of air, and to avoid the formation of large ice crystals in, or a stratification of, the product;
Lifting device for a motor vehicle sub-assembly with - a load-bearing unit with at least one support arm pivotable about a longitudinal axis of the load-bearing unit as well as - a coupling unit arranged on the support arm for the releasable connection of the support arm with the motor vehicle sub-assembly, wherein the coupling unit is mounted in a longitudinally displaceable manner on the support arm and the load-bearing unit is designed for connection with a crane unit, wherein the load-bearing unit is connected releasably with a connection body of a support unit , wherein the connection body is arranged in a tiltable manner on the support unit , characterized in that a blocking unit is arranged on the support arm , which is adjustable between a release position releasing the support arm for pivoting and a locking position fixing the support arm on the load-bearing unit and the blocking unit has a brake body , which is adjustable in the direction towards a housing main body of the load-bearing unit by means of an actuating element, wherein the brake body in the locking position locks the support arm in a frictional manner on the housing main body . - a load-bearing unit with at least one support arm pivotable about a longitudinal axis of the load-bearing unit as well as - a coupling unit arranged on the support arm for the releasable connection of the support arm with the motor vehicle sub-assembly, wherein the coupling unit is mounted in a longitudinally displaceable manner on the support arm and the load-bearing unit is designed for connection with a crane unit, wherein the load-bearing unit is connected releasably with a connection body of a support unit , wherein the connection body is arranged in a tiltable manner on the support unit , characterized in that a blocking unit is arranged on the support arm , which is adjustable between a release position releasing the support arm for pivoting and a locking position fixing the support arm on the load-bearing unit and the blocking unit has a brake body , which is adjustable in the direction towards a housing main body of the load-bearing unit by means of an actuating element, wherein the brake body in the locking position locks the support arm in a frictional manner on the housing main body .
A flow battery comprising: at least one cell including a first electrode , a second electrode spaced apart from the first electrode, and an electrolyte separator layer arranged between the first electrode and the second electrode; and a supply/storage system external of the at least one cell and including: a first vessel fluidly connected in a first loop with the first electrode, a second vessel fluidly connected in a second loop with the second electrode, the first loop and the second loop being isolated from each other with respect to open fluid flow there between, and characterized in that the supply/storage system includes a feed line between the first vessel and the second vessel , and the supply/storage system being configured to fluidly connect the first loop and the second loop to move a second liquid electrolyte via said feed line from the second vessel into a first liquid electrolyte in the first vessel responsive to a half-cell potential at the first electrode being less than a defined threshold half-cell potential. at least one cell including a first electrode , a second electrode spaced apart from the first electrode, and an electrolyte separator layer arranged between the first electrode and the second electrode; and a supply/storage system external of the at least one cell and including: a first vessel fluidly connected in a first loop with the first electrode, a second vessel fluidly connected in a second loop with the second electrode, the first loop and the second loop being isolated from each other with respect to open fluid flow there between, and characterized in that the supply/storage system includes a feed line between the first vessel and the second vessel , and the supply/storage system being configured to fluidly connect the first loop and the second loop to move a second liquid electrolyte via said feed line from the second vessel into a first liquid electrolyte in the first vessel responsive to a half-cell potential at the first electrode being less than a defined threshold half-cell potential. a first vessel fluidly connected in a first loop with the first electrode, a second vessel fluidly connected in a second loop with the second electrode, the first loop and the second loop being isolated from each other with respect to open fluid flow there between, and characterized in that the supply/storage system includes a feed line between the first vessel and the second vessel , and the supply/storage system being configured to fluidly connect the first loop and the second loop to move a second liquid electrolyte via said feed line from the second vessel into a first liquid electrolyte in the first vessel responsive to a half-cell potential at the first electrode being less than a defined threshold half-cell potential.
Method for producing a phosphate-containing anti-corrosion pigment, comprising the following steps: a) providing hydroxyapatite or calcium-magnesium phosphate particles or mixtures of the aforementioned as start particles in an aqueous solvent or dispersant, b) adding milk of lime, a magnesium compound and phosphoric acid to the aqueous solvent or dispersant in order to produce a reaction mixture, c) reacting the reaction mixture to form the phosphate-containing anti-corrosion pigment - at a temperature in the range of 20°C to 105°C and - at a pH in the range of 6.0 to 13.0, d) separating at least a part of the phosphate-containing anti-corrosion pigment from the aqueous solvent or dispersant, e) Optionally: drying the phosphate-containing anti-corrosion pigment. a) providing hydroxyapatite or calcium-magnesium phosphate particles or mixtures of the aforementioned as start particles in an aqueous solvent or dispersant, b) adding milk of lime, a magnesium compound and phosphoric acid to the aqueous solvent or dispersant in order to produce a reaction mixture, c) reacting the reaction mixture to form the phosphate-containing anti-corrosion pigment - at a temperature in the range of 20°C to 105°C and - at a pH in the range of 6.0 to 13.0, - at a temperature in the range of 20°C to 105°C and - at a pH in the range of 6.0 to 13.0, d) separating at least a part of the phosphate-containing anti-corrosion pigment from the aqueous solvent or dispersant, e) Optionally: drying the phosphate-containing anti-corrosion pigment.
An attenuated strain of porcine pseudorabies virus, wherein said attenuated strain of porcine pseudorabies virus is porcine pseudorabies virus HN1201 strain as deposited under accession number CCTCC NO. V 201311 with inactivation of gI, gE, 11K and 28K proteins only.
A compound which is one of the following: isopropyl 6-(2-methoxy-4-(1-methyl-1 H -1,2,3-triazol-5-yl)phenylamino)-2-(1-methyl-1 H -pyrazol-4-yl)-1 H -pyrrolo[3,2- c ]pyridine-1-carboxylate; or isopropyl 6-(2-methoxy-4-(1-methyl-1 H -tetrazol-5-yl)phenylamino)-2-(1-methyl-1 H -pyrazol-4-yl)-1 H -pyrrolo[3,2- c ]pyridine-1-carboxylate; or a pharmaceutically acceptable salt or solvate thereof. isopropyl 6-(2-methoxy-4-(1-methyl-1 H -1,2,3-triazol-5-yl)phenylamino)-2-(1-methyl-1 H -pyrazol-4-yl)-1 H -pyrrolo[3,2- c ]pyridine-1-carboxylate; or isopropyl 6-(2-methoxy-4-(1-methyl-1 H -tetrazol-5-yl)phenylamino)-2-(1-methyl-1 H -pyrazol-4-yl)-1 H -pyrrolo[3,2- c ]pyridine-1-carboxylate;
A method of making moulds or cores, comprising at least the following steps: a) providing a moulding material mixture which comprises at least one refractory moulding base material and waterglass as a binder in a moulding box; b) introducing a gas into the moulding box, the gas comprising at least one carbonyl compound having a molecular weight of greater than 43 g/mol and less than 200 g/mol and comprising, in addition to a carbonyl group (C=O), at least one further carbon atom for curing the moulding material mixture; wherein the carbonyl compound is characterised by the following formula: R 1 R 2 C=O wherein R 1 is - a hydrogen atom, or - a C1 or C2 alkyl, and R 2 is - an R-C(=O)-O- carboxyl group that is substituted by R and bonded via the oxygen atom, where R = C1 to C3 hydrocarbon, preferably C1 or C2 alkyl, each independently of each other, and wherein the boiling point of the carbonyl compound is greater than 20 °C and less than 200 °C at 1013 hPa. a) providing a moulding material mixture which comprises at least one refractory moulding base material and waterglass as a binder in a moulding box; b) introducing a gas into the moulding box, the gas comprising at least one carbonyl compound having a molecular weight of greater than 43 g/mol and less than 200 g/mol and comprising, in addition to a carbonyl group (C=O), at least one further carbon atom for curing the moulding material mixture; R 1 is - a hydrogen atom, or - a C1 or C2 alkyl, and - a hydrogen atom, or - a C1 or C2 alkyl, and R 2 is - an R-C(=O)-O- carboxyl group that is substituted by R and bonded via the oxygen atom, where R = C1 to C3 hydrocarbon, preferably C1 or C2 alkyl, each independently of each other, and - an R-C(=O)-O- carboxyl group that is substituted by R and bonded via the oxygen atom,
A droplet discharge head comprising: a liquid; a nozzle configured to discharge the liquid as droplets; a pressure chamber defining substrate defining a pressure chamber communicating with the nozzle; a piezoelectric element including a first electrode , a second electrode , and a piezoelectric layer disposed between the first electrode and the second electrode, the piezoelectric layer containing a perovskite-type composite oxide containing potassium, sodium, and niobium as a main component; and a vibration plate disposed between the pressure chamber defining substrate and the piezoelectric element , forming a part of a wall surface of the pressure chamber, and configured to vibrate by driving of the piezoelectric element, characterised in that : a driving frequency f [Hz] representing a frequency at which the piezoelectric element is driven, a piezoelectric constant d 31 [m/v] of the piezoelectric element, a ratio x of a sodium molar fraction to a total value of a potassium molar fraction and the sodium molar fraction in the piezoelectric layer, and a viscosity μ [Pa·s] of the liquid at 25°C satisfy a relationship represented by a following formula . 5.3 × 10 − 11 ≤ d 31 ⋅ x / μ ⋅ f ≤ 3.0 × 10 − 9 a liquid; a nozzle configured to discharge the liquid as droplets; a pressure chamber defining substrate defining a pressure chamber communicating with the nozzle; a piezoelectric element including a first electrode , a second electrode , and a piezoelectric layer disposed between the first electrode and the second electrode, the piezoelectric layer containing a perovskite-type composite oxide containing potassium, sodium, and niobium as a main component; and a vibration plate disposed between the pressure chamber defining substrate and the piezoelectric element , forming a part of a wall surface of the pressure chamber, and configured to vibrate by driving of the piezoelectric element, characterised in that : a driving frequency f [Hz] representing a frequency at which the piezoelectric element is driven, a piezoelectric constant d 31 [m/v] of the piezoelectric element, a ratio x of a sodium molar fraction to a total value of a potassium molar fraction and the sodium molar fraction in the piezoelectric layer, and a viscosity μ [Pa·s] of the liquid at 25°C satisfy a relationship represented by a following formula . 5.3 × 10 − 11 ≤ d 31 ⋅ x / μ ⋅ f ≤ 3.0 × 10 − 9
A method performed in a deployment server , the deployment server being configured to deploy a software container (2, 2a-b), the method comprising the steps of: receiving a trigger to deploy a software container (2, 2a-b); obtaining an image intended for the software container (2, 2a-b) comprising a set of at least one module ; injecting a security module in the image (2, 2a-b); obtaining a container specification of the image, the container specification comprising information of at least one service exposed by the set of at least one module ; configuring the security module to forward incoming communication to the set of at least one module in accordance with the obtained container specification; modifying the container specification such that the at least one service is accessed externally only via the security module and that all outgoing communication, from the set of at least one module , is directed via the security module; publishing the modified container specification in a service discovery repository ; and deploying the software container (2, 2a-b) on at least one execution server (4, 4a-b). receiving a trigger to deploy a software container (2, 2a-b); obtaining an image intended for the software container (2, 2a-b) comprising a set of at least one module ; injecting a security module in the image (2, 2a-b); obtaining a container specification of the image, the container specification comprising information of at least one service exposed by the set of at least one module ; configuring the security module to forward incoming communication to the set of at least one module in accordance with the obtained container specification; modifying the container specification such that the at least one service is accessed externally only via the security module and that all outgoing communication, from the set of at least one module , is directed via the security module; publishing the modified container specification in a service discovery repository ; and deploying the software container (2, 2a-b) on at least one execution server (4, 4a-b).