mhurhangee/patent-ind-claim-en huggingface dataset:
A method for operating a wind turbine during start-up from a non-producing operation mode to a power producing operation mode, the method comprising the steps of: a) setting a nominal cut-in value of a first operational parameter and a connection cut-in value of a second operational parameter of the wind turbine, b) monitoring the first operational parameter, c) initiating start-up of the wind turbine when the monitored first operational parameter is higher than the nominal cut-in value, d) monitoring the second operational parameter, e) detecting a cut-in transition if the value of the second operational parameter is not reaching the connection cut-in value within a start-up time period or the first operational parameter falls below the nominal cut-in value, f) detecting a cut-in limit cycle of the wind turbine if more than a threshold number of counted cut-in transitions has been detected, and if a cut-in limit cycle is detected, increase the nominal cut-in value, and g) repeating steps b)-f) until the second operational parameter reaches the connection cut-in value. a) setting a nominal cut-in value of a first operational parameter and a connection cut-in value of a second operational parameter of the wind turbine, b) monitoring the first operational parameter, c) initiating start-up of the wind turbine when the monitored first operational parameter is higher than the nominal cut-in value, d) monitoring the second operational parameter, e) detecting a cut-in transition if the value of the second operational parameter is not reaching the connection cut-in value within a start-up time period or the first operational parameter falls below the nominal cut-in value, f) detecting a cut-in limit cycle of the wind turbine if more than a threshold number of counted cut-in transitions has been detected, and if a cut-in limit cycle is detected, increase the nominal cut-in value, and g) repeating steps b)-f) until the second operational parameter reaches the connection cut-in value.
A drive device, having an electric motor and a gear unit driven by the electric motor, wherein the gear unit has a first and a second housing part , wherein the electric motor has a laminated stator core with stator windings which is received in a stator housing , wherein the stator housing and also the first and the second housing part is surrounded, in particular is radially surrounded, by a housing , in particular tubular housing and/or pot-shaped housing, of the drive device, wherein the housing is spaced apart from the stator housing , wherein a circulating air stream can be formed within the housing , wherein the second housing part has at least one pocket-shaped depression on its surface, past which the air stream or at least part of the air stream flows, such that dirt and/or dust from the air stream or part of the air stream can be deposited in the pocket-shaped depression in the second housing part , wherein a connecting element, in particular a screw, connects the first housing part to the second housing part and the spatial region required for actuating the connecting element with a tool is formed and/or is provided by means of the depression, in particular wherein the tool engages at least partially into or around the connecting element and can be actuated from the surroundings, so that the pocket-shaped depression is formed open towards the inner spatial region encompassed by the housing , wherein the stator housing has cutouts which are continuous axially, i.e. in the axial direction of the rotor shaft, wherein the cutouts lead the air stream through in the axial direction and the air stream is returned in the opposite direction in the spaced-apart region between the stator housing part and housing , characterised in that the air stream from the cutouts in the stator housing flows through respective cutouts in the second housing part , which are limited at least partially by ribs protruding out on the second housing part , wherein the stator housing on its side remote from the gear unit is connected to the housing by way of a bearing flange , wherein the bearing flange has an in particular circular baseplate portion , and a partition portion arranged thereon, wherein the partition portion is provided to separate the air stream from a spatial region which surrounds the axial end region of the rotor shaft which is remote from the gear unit, or at least partially surrounds an angular sensor arranged on this end region, wherein the partition portion in a first angle-at-circumference direction is radially less extended than in a second angle-at-circumference direction different from the first, wherein the stator housing is manufactured from a second material and the housing from a first material, wherein the first material has a greater thermal conductivity than the second material.
A home carbonation machine , said machine comprising: a carbonation head ; a gas canister connectable to said carbonation head; and a plastic carbonation tube having a metal tip insert molded to a distal end of said carbonation tube such that the metal tip is made an integral part of the carbonation tube, said carbonation tube configured to transport injected carbon dioxide from said gas canister to a bottle of water and configured to extend from above a level of the water in the bottle to below the level of the water, said tip having a single orifice configured to be immersed in the water in said bottle, and wherein a threaded proximal end of said carbonation tube is connected to said carbonation head. a carbonation head ; a gas canister connectable to said carbonation head; and a plastic carbonation tube having a metal tip insert molded to a distal end of said carbonation tube such that the metal tip is made an integral part of the carbonation tube, said carbonation tube configured to transport injected carbon dioxide from said gas canister to a bottle of water and configured to extend from above a level of the water in the bottle to below the level of the water, said tip having a single orifice configured to be immersed in the water in said bottle, and wherein a threaded proximal end of said carbonation tube is connected to said carbonation head.
A catalyst composition comprising particles of gold-platinum alloy and particles of platinum on a support selected from the group consisting of titanias, zirconias, silicas and montmorillonites, wherein (a) the molar ratio of platinum to gold on the support is from 10:1 to 1:2, and (b) the particle sizes of the platinum particles are substantially in the range of from 5 to 30 nanometers.
A heterophasic propylene copolymer comprising a matrix phase comprising a propylene polymer and a dispersed phase comprising an ethylene-α-olefin elastomer comprising ethylene and at least one C 3 to C 10 α-olefin, wherein the propylene polymer has an intrinsic viscosity IV PP and the ethylene-α-olefin elastomer has an intrinsic viscosity IV EPR where the ratio of IV EPR /IV PP is 3-7, wherein the copolymer comprises 8-30 wt% of the ethylene-α-olefin elastomer, wherein the ethylene-α-olefin elastomer of the dispersed phase comprises 10-55 wt% of ethylene, wherein the propylene polymer of the matrix phase is made only from a single type of propylene polymer having a melt flow index (MFI) of at least 180 dg/min as determined by ISO1133:2005 at 230 °C and 2.16 kg, wherein the IV EPR is 4.5-6.5 dl/g. wherein the propylene polymer has an intrinsic viscosity IV PP and the ethylene-α-olefin elastomer has an intrinsic viscosity IV EPR where the ratio of IV EPR /IV PP is 3-7, wherein the copolymer comprises 8-30 wt% of the ethylene-α-olefin elastomer, wherein the ethylene-α-olefin elastomer of the dispersed phase comprises 10-55 wt% of ethylene, wherein the propylene polymer of the matrix phase is made only from a single type of propylene polymer having a melt flow index (MFI) of at least 180 dg/min as determined by ISO1133:2005 at 230 °C and 2.16 kg, wherein the IV EPR is 4.5-6.5 dl/g.
A refrigerator and/or freezer device, with a carcass, and a refrigerated inner space, surrounded by the carcass, in which a horizontal separating plate is arranged, wherein the device has a mist generator for generating a mist, wherein means for generating condensate are provided, wherein the condensate is the defrost water of the evaporator and/or the condensed water of the evaporator and/or of the mist generator, characterised in that the horizontal separating plate is configured to conduct the mist from the rear side of the horizontal separating plate through the horizontal separating plate to an opening arranged in the front-side region thereof, wherein the means for generating condensate are connected to the mist generator such that the condensate formed is supplied to the mist generator by collecting means and is used for generating the mist.
A combination comprising or consisting of: - caprylic acid monoglyceride; - at least one mannosylerythritol lipid; - monopropylene glycol; and - optionally a fatty acid and/or a fatty acid ester; wherein the total quantity of caprylic acid monoglyceride and mannosylerythritol lipid(s) is at least 20% by weight relative to the weight of the combination. - caprylic acid monoglyceride; - at least one mannosylerythritol lipid; - monopropylene glycol; and - optionally a fatty acid and/or a fatty acid ester;
A system comprising: a casing-liner disposed within a wellbore casing disposed in a wellbore to define an annular disposal zone between the casing-liner and the wellbore casing; a first downhole separator disposed within the wellbore casing and configured to receive a production fluid from a production zone and generate a hydrocarbon rich stream and a water stream comprising a solid medium, from the production fluid; a production pump disposed within the wellbore casing and coupled to the first downhole separator and a surface unit , wherein the production pump is configured to pump the hydrocarbon rich stream from the first downhole separator to the surface unit via a channel; a second downhole separator disposed above the casing-liner within the wellbore casing and coupled to the first downhole separator and configured to receive the water stream comprising the solid medium from the first downhole separator and separate the solid medium from the water stream to generate a separated water stream, wherein the second downhole separator is configured to dispose the solid medium to the annular disposal zone; and a tube coupled to the second downhole separator and configured to dispose the separated water stream from the second downhole separator to a water disposal zone in the wellbore. a casing-liner disposed within a wellbore casing disposed in a wellbore to define an annular disposal zone between the casing-liner and the wellbore casing; a first downhole separator disposed within the wellbore casing and configured to receive a production fluid from a production zone and generate a hydrocarbon rich stream and a water stream comprising a solid medium, from the production fluid; a production pump disposed within the wellbore casing and coupled to the first downhole separator and a surface unit , wherein the production pump is configured to pump the hydrocarbon rich stream from the first downhole separator to the surface unit via a channel; a second downhole separator disposed above the casing-liner within the wellbore casing and coupled to the first downhole separator and configured to receive the water stream comprising the solid medium from the first downhole separator and separate the solid medium from the water stream to generate a separated water stream, wherein the second downhole separator is configured to dispose the solid medium to the annular disposal zone; and a tube coupled to the second downhole separator and configured to dispose the separated water stream from the second downhole separator to a water disposal zone in the wellbore.
A gear pump system for an ice cream freezer , comprising a gear pump comprising a pump casing , an inlet for receiving a liquid food product of ice cream mix, an outlet for transferring the ice cream mix into a freezing cylinder of the ice cream freezer , wherein the inlet being connected to an impeller driving a star wheel which in turn is connected to the outlet , wherein the pump is closed by supplying a closing air pressure onto a moveable pump cover of the pump via at least one hole provided straight through the pump casing , thereby moving said moveable pump cover against the star wheel , and a control unit for supplying a calculated closing air pressure (P CLOSE ) to the pump by means of the air pressure regulator via the at least one hole in the pump casing , wherein the control unit is configured to: receive a first measure of liquid food product supply pressure (P IN , P1) at the inlet of the pump , receive a second measure of liquid food product outlet pressure (P OUT , P2) at the outlet of the pump , calculate a closing air pressure (P CLOSE ) being determined by the differential pressure between the liquid food product outlet pressure (P OUT , P2) and the liquid food product supply pressure (P IN , P1) across the pump , supply the calculated closing air pressure (P CLOSE ) to the moveable pump cover by means of an air pressure regulator via the at least one hole in the pump casing , thereby forcing the moveable pump cover against the star wheel thereby closing the pump to adjust the closing distance between the star wheel and impeller . receive a first measure of liquid food product supply pressure (P IN , P1) at the inlet of the pump , receive a second measure of liquid food product outlet pressure (P OUT , P2) at the outlet of the pump , calculate a closing air pressure (P CLOSE ) being determined by the differential pressure between the liquid food product outlet pressure (P OUT , P2) and the liquid food product supply pressure (P IN , P1) across the pump , supply the calculated closing air pressure (P CLOSE ) to the moveable pump cover by means of an air pressure regulator via the at least one hole in the pump casing , thereby forcing the moveable pump cover against the star wheel thereby closing the pump to adjust the closing distance between the star wheel and impeller .
A seat belt connector for securing pets, primarily dogs in a car, comprising a fastening carabiner , an adjustable length stalk portion connected thereto, a slide adjuster ensuring the adjustability of the stalk portion , furthermore, a connecting member engageable in a releasable manner by means of a tongue plate and a tongue opening formed therein, extending in the direction of the axis line , in a buckle housing equipped with a receiving opening and a buckle housing release button , firmly fixed to the car seat, the protruding portion of which has at least one connecting member opening accommodating the stalk portion , and the stalk portion continues in a folded back stalk portion fixed to the stalk portion in a stalk portion fixing zone , characterized in that the seat belt connector has a cover element directly fixed together with the stalk portion , comprising at least two cover element openings , and the cover element is located between the stalk portion fixing zone and the tongue plate of the connecting member , in a manner separating from each other the stalk portion fixing zone and the tongue plate , covering the protruding portion on the side towards the stalk portion fixing zone , and having a width extending beyond the release button of the buckle housing , furthermore, the stalk portion is threaded through at least one cover element opening in the direction of the tongue opening , while on the opposite side of the axis line the folded back stalk portion passes through the other cover element opening and is fixed to the stalk portion in the stalk portion fixing zone , furthermore, the stalk portion and the folded back stalk portion form a loop portion extending between the connecting member opening and the stalk portion fixing zone in the direction of the axis line , surrounding an intermediate wall portion perpendicular to the axis line , located between the cover element openings , which intermediate wall portion , squeezed by the loop portion as a result of the pulling and tugging forces acting during normal use, is compressed to an extent depending on the density of the material of the cover element in the direction perpendicular to the axis line .
Method for depositing an epitaxial layer on a substrate wafer from a gas phase, comprising measuring an edge geometry of the substrate wafer, which assigns a characteristic thickness value to an edge of the substrate wafer as a function of edge positions, including the characteristic thickness value at a notch position; placing the substrate wafer on a placement area of a pocket of a susceptor of an apparatus for depositing the epitaxial layer, the placement area being surrounded by an outer boundary; heating the substrate wafer; and passing process gas over the substrate wafer; characterized by verifying whether the characteristic thickness value at the notch position differs by more than a percentage limit from the characteristic thickness value at an edge position having the greatest characteristic thickness value; placing the substrate wafer on the placement area in such a way that the distance of the substrate wafer from the outer boundary of the placement area is smaller at the edge position having the greatest characteristic thickness value than at the other edge positions, provided that the difference is greater than the percentage limit, or in such a way that the distance of the substrate wafer from the outer boundary of the placement area is smaller at the notch position than at the other edge positions, provided that the difference is not greater than the percentage limit. measuring an edge geometry of the substrate wafer, which assigns a characteristic thickness value to an edge of the substrate wafer as a function of edge positions, including the characteristic thickness value at a notch position; placing the substrate wafer on a placement area of a pocket of a susceptor of an apparatus for depositing the epitaxial layer, the placement area being surrounded by an outer boundary; heating the substrate wafer; and passing process gas over the substrate wafer; characterized by verifying whether the characteristic thickness value at the notch position differs by more than a percentage limit from the characteristic thickness value at an edge position having the greatest characteristic thickness value; placing the substrate wafer on the placement area in such a way that the distance of the substrate wafer from the outer boundary of the placement area is smaller at the edge position having the greatest characteristic thickness value than at the other edge positions, provided that the difference is greater than the percentage limit, or in such a way that the distance of the substrate wafer from the outer boundary of the placement area is smaller at the notch position than at the other edge positions, provided that the difference is not greater than the percentage limit.
A fiber optic cassette mounting system, comprising: a fiber optic cassette configured to hold a horizontal row of fiber optic adapters along the front edge of the fiber optic cassette , wherein the fiber optic adapters are configured to receive fiber optic connectors that terminate respective optical fibers; and a fiber optic cassette tray comprising rail guides configured to engage with respective rails of the fiber optic cassette , wherein a rail guide, of the rail guides , comprises an elongated portion of a surface of the fiber optic cassette tray that is raised from the surface to form ledges on a left side and a right side of the elongated portion, wherein the rail guides are configured to hold the fiber optic cassette on the fiber optic cassette tray , wherein the fiber optic cassette is a fiber optic single-gang cassette or a fiber optic multi-gang cassette ; wherein the fiber optic cassette comprises a latching mechanism comprising a latching protrusion configured to engage with an aperture on the fiber optic cassette tray , wherein the latching mechanism further comprises a release mechanism , wherein the release mechanism is configured to disengage the latching protrusion from the aperture in response to pressure being applied to the release mechanism , characterised in that the release mechanism faces toward the front of the fiber optic cassette . a fiber optic cassette configured to hold a horizontal row of fiber optic adapters along the front edge of the fiber optic cassette , wherein the fiber optic adapters are configured to receive fiber optic connectors that terminate respective optical fibers; and a fiber optic cassette tray comprising rail guides configured to engage with respective rails of the fiber optic cassette , wherein a rail guide, of the rail guides , comprises an elongated portion of a surface of the fiber optic cassette tray that is raised from the surface to form ledges on a left side and a right side of the elongated portion, wherein the rail guides are configured to hold the fiber optic cassette on the fiber optic cassette tray , wherein the fiber optic cassette is a fiber optic single-gang cassette or a fiber optic multi-gang cassette ; wherein the fiber optic cassette comprises a latching mechanism comprising a latching protrusion configured to engage with an aperture on the fiber optic cassette tray , wherein the latching mechanism further comprises a release mechanism , wherein the release mechanism is configured to disengage the latching protrusion from the aperture in response to pressure being applied to the release mechanism , characterised in that the release mechanism faces toward the front of the fiber optic cassette .
A mineral wool product comprising mineral fibers bound by a binder resulting from the curing of a binder composition comprising at least two hydrocolloids, wherein one hydrocolloid is gelatin and the at least one other hydrocolloid is selected from the group consisting of pectin, starch, alginate, agar agar, carrageenan, gellan gum, guar gum, gum arabic, locust bean gum, xanthan gum, cellulose derivatives such as carboxymethylcellulose, arabinoxylan, cellulose, curdlan, β-glucan, in which the gelatin is present in an amount of 10 to 95 wt.-%, such as 20 to 80 wt.- %, such as 30 to 70 wt.-%, such as 40 to 60 wt.-%, based on the weight of the hydrocolloids, and at least one fatty acid ester of glycerol.
A system comprising one or more processors configured to: store, in a memory , at least one fallback task in association with a request for a primary task and a corresponding trigger for each fallback task, each trigger being a set of conditions that, when satisfied, indicate that a corresponding fallback task should be executed; send a first set of instructions to one or more self-driving systems (160-172) that control a vehicle to execute the primary task; receive status updates from the one or more self-driving systems; determine that a set of conditions of a given corresponding trigger for a given fallback task is satisfied based at least in part on the status updates; and send a second set of one or more instructions to a self-driving system associated with the satisfied conditions of the trigger for the given fallback task. store, in a memory , at least one fallback task in association with a request for a primary task and a corresponding trigger for each fallback task, each trigger being a set of conditions that, when satisfied, indicate that a corresponding fallback task should be executed; send a first set of instructions to one or more self-driving systems (160-172) that control a vehicle to execute the primary task; receive status updates from the one or more self-driving systems; determine that a set of conditions of a given corresponding trigger for a given fallback task is satisfied based at least in part on the status updates; and send a second set of one or more instructions to a self-driving system associated with the satisfied conditions of the trigger for the given fallback task.