mhurhangee/ep-ind-claims huggingface dataset:
A nozzle comprising: a rotatable deflector having an underside surface contoured to deliver fluid radially outwardly therefrom; a nozzle body defining an inlet and an outlet, the inlet capable of receiving fluid from a source and the outlet capable of delivering fluid to the underside surface of the deflector to cause rotation of the deflector; and a brake disposed within the deflector for maintaining rotation of the deflector at a relatively constant speed regardless of flow rate through the nozzle body and regardless of temperature; wherein the brake comprises a first body that rotates with the deflector, a second body that is fixed against rotation, and a brake pad disposed between the first body and the second body; wherein the brake pad defines a bore therethrough, has a bottommost surface defining an inner ring for engagement with the first body to reduce deflector rotation at low power input, and has an outermost lip for engagement with the first body to reduce deflector rotation at high power input, the outermost lip being thicker than the remainder of the brake pad; wherein the outermost lip includes a horizontal lip at the bottom surface of the brake pad such that, at high power input, the first body is urged into frictional engagement with the horizontal lip, the horizontal lip limiting frictional engagement of the first body. a rotatable deflector having an underside surface contoured to deliver fluid radially outwardly therefrom; a nozzle body defining an inlet and an outlet, the inlet capable of receiving fluid from a source and the outlet capable of delivering fluid to the underside surface of the deflector to cause rotation of the deflector; and a brake disposed within the deflector for maintaining rotation of the deflector at a relatively constant speed regardless of flow rate through the nozzle body and regardless of temperature; wherein the brake comprises a first body that rotates with the deflector, a second body that is fixed against rotation, and a brake pad disposed between the first body and the second body; wherein the brake pad defines a bore therethrough, has a bottommost surface defining an inner ring for engagement with the first body to reduce deflector rotation at low power input, and has an outermost lip for engagement with the first body to reduce deflector rotation at high power input, the outermost lip being thicker than the remainder of the brake pad; wherein the outermost lip includes a horizontal lip at the bottom surface of the brake pad such that, at high power input, the first body is urged into frictional engagement with the horizontal lip, the horizontal lip limiting frictional engagement of the first body.
A yarn winding device comprising: a yarn supplying section adapted to supply a yarn; a yarn storage section adapted to wind and store the yarn of the yarn supplying section by rotating a rotary body at a predetermined winding speed in a winding direction; a package forming section adapted to pull out the yarn from the yarn storage section and wind the pulled out yarn to form a package; a yarn joining device adapted to connect, when the yarn is disconnected between the yarn supplying section and the yarn storage section, a disconnected yarn from the yarn supplying section and the yarn from the yarn storage section; a tension applying section arranged between the yarn supplying section and the yarn storage section, and adapted to make contact with the yarn supplied from the yarn supplying section to apply tension to the yarn; and a control section adapted to control the rotation of the rotary body, wherein the control section performs an acceleration rate changing control of controlling the rotation of the rotary body so as to change an acceleration rate in the winding direction of the rotary body while accelerating the rotary body from a stopped state to the predetermined winding speed after completion of the yarn joining operation by the yarn joining device, characterized in that the control section rotates the rotary body in the winding direction at a first acceleration, and then rotates the rotary body in the winding direction at a second acceleration after the completion of the yarn joining operation; and an acceleration rate in the first acceleration is smaller than an acceleration rate in the second acceleration. a yarn supplying section adapted to supply a yarn; a yarn storage section adapted to wind and store the yarn of the yarn supplying section by rotating a rotary body at a predetermined winding speed in a winding direction; a package forming section adapted to pull out the yarn from the yarn storage section and wind the pulled out yarn to form a package; a yarn joining device adapted to connect, when the yarn is disconnected between the yarn supplying section and the yarn storage section, a disconnected yarn from the yarn supplying section and the yarn from the yarn storage section; a tension applying section arranged between the yarn supplying section and the yarn storage section, and adapted to make contact with the yarn supplied from the yarn supplying section to apply tension to the yarn; and a control section adapted to control the rotation of the rotary body,
A positioning and stabilising structure for a patient interface, the positioning and stabilising structure configured to provide a force to hold a seal-forming structure of the patient interface in a therapeutically effective position on a patient's head, the positioning and stabilising structure comprising: one or more gas delivery tubes to receive a flow of air from a connection port on top of the patient's head and to deliver the flow of air to an entrance of the patient's airways via the seal-forming structure, each of the one or more gas delivery tubes being constructed and arranged to contact, in use, at least a region of the patient's head superior to an otobasion superior of the patient's head, each of the one or more gas delivery tubes comprising: a superior tube portion configured, in use, to overlie a superior region of the patient's head, the superior tube portion comprising: a first end configured, in use, to overlie a superior portion of the patient's head at or proximate the sagittal plane of the patient's head; a second end configured, in use, to overlie a side portion of the patient's head; and an inferior tube portion configured to be connected between the second end of the superior tube portion and the seal-forming structure in use, the superior tube portion being characterized by one or more stiffened portions between the first end and the second end configured to provide a higher resistance to relative movement between the first end and the second end in an anterior and/or posterior direction than in a superior and/or inferior direction in use. a superior tube portion configured, in use, to overlie a superior region of the patient's head, the superior tube portion comprising: a first end configured, in use, to overlie a superior portion of the patient's head at or proximate the sagittal plane of the patient's head; a second end configured, in use, to overlie a side portion of the patient's head; and a first end configured, in use, to overlie a superior portion of the patient's head at or proximate the sagittal plane of the patient's head; a second end configured, in use, to overlie a side portion of the patient's head; and an inferior tube portion configured to be connected between the second end of the superior tube portion and the seal-forming structure in use, the superior tube portion being characterized by one or more stiffened portions between the first end and the second end configured to provide a higher resistance to relative movement between the first end and the second end in an anterior and/or posterior direction than in a superior and/or inferior direction in use.
A method for cutting a pipe made of thermoplastic material comprising, in combination, the following steps: - feeding a continuous pipe made of thermoplastic material; - localised and circumferential heating of a first localised axial portion of the pipe for a predetermined time using a heating unit; - cutting without removal of chippings, using a cutting unit, of the first heated axial portion, to obtain a piece of the pipe; - localised and circumferential heating of a second localised axial portion of the pipe, for a predetermined time, the second axial portion being positioned at a predetermined distance from the first portion, characterised in that the step of localised and circumferential heating of the second axial portion is actuated at least partly at the same time as the step of cutting the first axial portion. - feeding a continuous pipe made of thermoplastic material; - localised and circumferential heating of a first localised axial portion of the pipe for a predetermined time using a heating unit; - cutting without removal of chippings, using a cutting unit, of the first heated axial portion, to obtain a piece of the pipe; - localised and circumferential heating of a second localised axial portion of the pipe, for a predetermined time, the second axial portion being positioned at a predetermined distance from the first portion, characterised in that the step of localised and circumferential heating of the second axial portion is actuated at least partly at the same time as the step of cutting the first axial portion.
A lubricating composition comprising: (a) 0.1 to 50 wt% of a polymer derived from greater than 50 wt % or more of a non-diene monomer, wherein the polymer has radial or star architecture, is obtained from RAFT or ATRP polymerisation processes and is a polymethacrylate, or mixtures thereof, and wherein the polymethacrylate is derived from a monomer composition consisting of: (i) 50 wt % to 100 wt % of an alkyl methacrylate, wherein the alkyl group of the methacrylate has 12 to 15 carbon atoms; (ii) 0 wt % to 40 wt % of an alkyl methacrylate, wherein the alkyl group of the methacrylate has 1 to 9 carbon atoms; and (iii) 0 wt % to 10 wt % of a nitrogen containing monomer; (b) 0.01 to 20 wt% of a phosphorus-containing acid, salt, or ester; (c) 0.01 to 20 wt% of an extreme pressure agent, other than a phosphorus-containing acid, salt, or ester; and (d) an oil of lubricating viscosity. (a) 0.1 to 50 wt% of a polymer derived from greater than 50 wt % or more of a non-diene monomer, wherein the polymer has radial or star architecture, is obtained from RAFT or ATRP polymerisation processes and is a polymethacrylate, or mixtures thereof, and wherein the polymethacrylate is derived from a monomer composition consisting of: (i) 50 wt % to 100 wt % of an alkyl methacrylate, wherein the alkyl group of the methacrylate has 12 to 15 carbon atoms; (ii) 0 wt % to 40 wt % of an alkyl methacrylate, wherein the alkyl group of the methacrylate has 1 to 9 carbon atoms; and (iii) 0 wt % to 10 wt % of a nitrogen containing monomer; (i) 50 wt % to 100 wt % of an alkyl methacrylate, wherein the alkyl group of the methacrylate has 12 to 15 carbon atoms; (ii) 0 wt % to 40 wt % of an alkyl methacrylate, wherein the alkyl group of the methacrylate has 1 to 9 carbon atoms; and (iii) 0 wt % to 10 wt % of a nitrogen containing monomer; (b) 0.01 to 20 wt% of a phosphorus-containing acid, salt, or ester; (c) 0.01 to 20 wt% of an extreme pressure agent, other than a phosphorus-containing acid, salt, or ester; and (d) an oil of lubricating viscosity.
A method for producing a polymer alloy, comprising: compounding at least two or more components of thermoplastic resins by chaotic mixing, wherein the compounding by chaotic mixing are performed using a biaxial screw extruder, wherein the temperature of compounding by chaotic mixing is set 1 to 70°C higher than the glass transition temperature of a resin, which has the highest glass transition temperature among the resins used.
A modular outdoor door unit comprising: - at least one functional module, and - a frame for fixing the modular outdoor door unit to a mounting box in a wall, the frame being adapted for receiving the at least one functional module and comprising a hole at a lower side for receiving fixing means for fixing the functional module to the frame, wherein the functional module comprises: - two hooks at an upper side of the functional module for inserting into corresponding slots at an upper, inner side of the frame, and - a hole at a lower side of the functional module for receiving the fixing means for fixing the functional module to the frame. - at least one functional module, and - a frame for fixing the modular outdoor door unit to a mounting box in a wall, the frame being adapted for receiving the at least one functional module and comprising a hole at a lower side for receiving fixing means for fixing the functional module to the frame, - two hooks at an upper side of the functional module for inserting into corresponding slots at an upper, inner side of the frame, and - a hole at a lower side of the functional module for receiving the fixing means for fixing the functional module to the frame.
An electro-thermal film device (2000a, 2000b, 4000, 6000, 13000, 16000, 18000), comprising: a substrate; a conductor layer disposed on the substrate; first and second electrodes attached to the conductor layer, wherein the first electrode comprises a first bus bar (21a, 421a, 621a, 1321a, 1621a, 1821a) and at least one first inner electrode (22a, 422a, 622a, 1322a, 1622a, 1822a) extending from the first bus bar (21a, 421a, 621a, 1321a, 1621a, 1821a), and the second electrode comprises a second bus bar (21b, 421b, 621b, 1321b, 1621b, 1821b) and at least one second inner electrode (22b, 422b, 622b, 1322b, 1622b, 1822b) extending from the second bus bar (21b, 421b, 621a, 1321a, 1621a, 1821a), the first inner electrode (22a, 422a, 622a, 1322a, 1622a, 1822a) and the second inner electrode (22b, 422b, 622b, 1322b, 1622b, 1822b) are alternately disposed and separated from each other, characterized in that the first and second bus bars have a plurality of holes, wherein the holes of the first bus bar are at positions pointed by the second inner electrode, and the holes of the second bus bar are at positions pointed by the first inner electrode. a substrate; a conductor layer disposed on the substrate; first and second electrodes attached to the conductor layer, wherein the first electrode comprises a first bus bar (21a, 421a, 621a, 1321a, 1621a, 1821a) and at least one first inner electrode (22a, 422a, 622a, 1322a, 1622a, 1822a) extending from the first bus bar (21a, 421a, 621a, 1321a, 1621a, 1821a), and the second electrode comprises a second bus bar (21b, 421b, 621b, 1321b, 1621b, 1821b) and at least one second inner electrode (22b, 422b, 622b, 1322b, 1622b, 1822b) extending from the second bus bar (21b, 421b, 621a, 1321a, 1621a, 1821a), the first inner electrode (22a, 422a, 622a, 1322a, 1622a, 1822a) and the second inner electrode (22b, 422b, 622b, 1322b, 1622b, 1822b) are alternately disposed and separated from each other, characterized in that the first and second bus bars have a plurality of holes, wherein the holes of the first bus bar are at positions pointed by the second inner electrode, and the holes of the second bus bar are at positions pointed by the first inner electrode.
A method comprising: mixing a ceramic particulate material with a curable binder mixture comprising one or more monomers, one or more oligomers, or a combination thereof to form a slurry; applying the slurry on at least one surface of a porous polymeric separator film to form a slurry coated separator; subjecting the slurry coated separator to ultraviolet or electron beam radiation, thereby curing the curable binder mixture and forming a nonionic porous ultraviolet or electron beam cured coating comprising a crosslink reaction product of the one or more monomers, one or more oligomers, or a combination thereof and the ceramic particulate material, and wherein the crosslink reaction product does not melt, wherein the porous ultraviolet or electron beam cured coating adheres to the at least one surface of the porous polymeric separator film upon the curing and the ceramic particulate material is distributed throughout the porous ultraviolet or electron beam cured coating, and wherein the ceramic particulate material is present in the porous ultraviolet or electron beam cured coating in an amount of 80 to 95 percent of a total weight of the porous ultraviolet or electron beam cured coating. mixing a ceramic particulate material with a curable binder mixture comprising one or more monomers, one or more oligomers, or a combination thereof to form a slurry; applying the slurry on at least one surface of a porous polymeric separator film to form a slurry coated separator; subjecting the slurry coated separator to ultraviolet or electron beam radiation, thereby curing the curable binder mixture and forming a nonionic porous ultraviolet or electron beam cured coating comprising a crosslink reaction product of the one or more monomers, one or more oligomers, or a combination thereof and the ceramic particulate material, and wherein the crosslink reaction product does not melt, wherein the porous ultraviolet or electron beam cured coating adheres to the at least one surface of the porous polymeric separator film upon the curing and the ceramic particulate material is distributed throughout the porous ultraviolet or electron beam cured coating, and wherein the ceramic particulate material is present in the porous ultraviolet or electron beam cured coating in an amount of 80 to 95 percent of a total weight of the porous ultraviolet or electron beam cured coating.
A dairy farm comprising (a) an array of n stalls ( n-1, n, n+1, n+2) side-by-side on a dairy animal level; each of said stalls is configured by means of size and shape to accommodate a dairy animal, and having a main longitudinal axis Y, a front side facing the animal's head and an opposite rear side facing the animal's tail along said Y axis; (b) a common elevated road surface provided on a higher level, above said stalls; said road surface extends along an axis X which is substantially perpendicular to said axis Y, and (c) at least one mobile unit, including at least one mobile milking unit (MMU, 10), configured to move freely or to be freely moved on said elevated road surface along said X axis, along said Y axis, in a rotation about the X axis, in a rotation about the Y axis, and in a rotation about the Z axis.
A method of controlling one or more vehicle systems in a motor vehicle, comprising: receiving monitoring information, the monitoring information including information from the one or more vehicle systems and information about a state of the autonomic nervous system of the driver; characterized in that the method further comprises: determining a body state index of the driver based on the monitoring information; changing an operating parameter of the one or more vehicle systems as a function of the body state index, wherein the operating parameter is used to determine activation of a particular function of the one or more vehicle system; determining if a driver is drowsy based on the body state index; and modifying the control of the one or more vehicle systems based on the operating parameter when the driver is drowsy. receiving monitoring information, the monitoring information including information from the one or more vehicle systems and information about a state of the autonomic nervous system of the driver; determining a body state index of the driver based on the monitoring information; changing an operating parameter of the one or more vehicle systems as a function of the body state index, wherein the operating parameter is used to determine activation of a particular function of the one or more vehicle system; determining if a driver is drowsy based on the body state index; and modifying the control of the one or more vehicle systems based on the operating parameter when the driver is drowsy.
A method comprising: transferring, by a network access device, NAD, a first hypertext transfer protocol secure, HTTPS, request received over a secure network link from a client computer, to an identity provider computer, wherein the first HTTPS request is addressed to the identity provider computer; transferring, by the NAD, a preceding redirected uniform resource locator, URL, received from the identity provider computer in response to the first HTTPS request, to the client computer, wherein the preceding redirected URL comprises a host identifier of the identity provider computer and is configured to cause the client computer to redirect to said preceding redirected URL using hypertext transfer protocol, HTTP; intercepting, by the NAD over the secure network link, a particular request specifying said preceding redirected URL from the client computer; in response to receiving the particular request, the NAD generating a particular response, the particular response comprising a subsequent redirected URL and a session identifier, wherein the subsequent redirected URL is configured to cause the client computer to redirect to the identity provider computer over an HTTPS connection; transferring, by the NAD, said subsequent redirected URL over the secure network link to the client computer; transferring, by the NAD, a second HTTPS request, comprising the session identifier, from the client computer to the identity provider computer. transferring, by a network access device, NAD, a first hypertext transfer protocol secure, HTTPS, request received over a secure network link from a client computer, to an identity provider computer, wherein the first HTTPS request is addressed to the identity provider computer; transferring, by the NAD, a preceding redirected uniform resource locator, URL, received from the identity provider computer in response to the first HTTPS request, to the client computer, wherein the preceding redirected URL comprises a host identifier of the identity provider computer and is configured to cause the client computer to redirect to said preceding redirected URL using hypertext transfer protocol, HTTP; intercepting, by the NAD over the secure network link, a particular request specifying said preceding redirected URL from the client computer; in response to receiving the particular request, the NAD generating a particular response, the particular response comprising a subsequent redirected URL and a session identifier, wherein the subsequent redirected URL is configured to cause the client computer to redirect to the identity provider computer over an HTTPS connection; transferring, by the NAD, said subsequent redirected URL over the secure network link to the client computer; transferring, by the NAD, a second HTTPS request, comprising the session identifier, from the client computer to the identity provider computer.
Method for operating a wind farm comprising at least two wind turbines, which each have a de-icing system for the rotor blades of the respective wind turbine, characterized in that the alteration of the activation state of the de-icing systems of the wind turbines of the wind farm is controlled in a coordinated manner, and comprises the steps: a) evaluating the operating state of at least one pilot wind turbine selected from the wind turbines of the wind farm; b) altering the activation state of the de-icing system in the case of the at least one pilot wind turbine; c) evaluating over again the operating state of the at least one pilot wind turbine; and d) if an improvement is ascertained in the evaluation of the operating state in the case of at least one pilot wind turbine, altering the activation state of the de-icing system of at least one further wind turbine of the wind farm. a) evaluating the operating state of at least one pilot wind turbine selected from the wind turbines of the wind farm; b) altering the activation state of the de-icing system in the case of the at least one pilot wind turbine; c) evaluating over again the operating state of the at least one pilot wind turbine; and d) if an improvement is ascertained in the evaluation of the operating state in the case of at least one pilot wind turbine, altering the activation state of the de-icing system of at least one further wind turbine of the wind farm.