mhurhangee/patent-ind-claim-en huggingface dataset:
A method for controlling a wind turbine , wherein the wind turbine is operated according to an operating point, wherein the operating point is determined at least by a pitch angle (γ) and a tip speed ratio (λ), wherein one of the operating points corresponds to a maximum power coefficient, wherein, in a partial load range , the wind turbine is operated at an operating point which differs from the operating point with the maximum power coefficient, wherein the distance (Δλ) of the operating point from the operating point with the maximum power coefficient is set in accordance with a measured turbulence measure (Ti), wherein the turbulence measure (Ti) comprises a turbulence intensity, characterized in that the distance (Δλ) of the operating point from the operating point with the maximum power coefficient is also set in accordance with a degree of rotor blade soiling. the wind turbine is operated according to an operating point, wherein the operating point is determined at least by a pitch angle (γ) and a tip speed ratio (λ), wherein one of the operating points corresponds to a maximum power coefficient, wherein, in a partial load range , the wind turbine is operated at an operating point which differs from the operating point with the maximum power coefficient, wherein the distance (Δλ) of the operating point from the operating point with the maximum power coefficient is set in accordance with a measured turbulence measure (Ti), wherein the turbulence measure (Ti) comprises a turbulence intensity, characterized in that the distance (Δλ) of the operating point from the operating point with the maximum power coefficient is also set in accordance with a degree of rotor blade soiling.
A method for patient monitoring, comprising: receiving, at a medical device , an alarm indication associated with a default alarm threshold for a measured physiological parameter; detecting that a clinician is accessing the medical device in response to the alarm indication; displaying an alarm message associated with the alarm indication based at least in part on the detecting; storing a plurality of intervention actions associated with an action of the clinician in response to the alarm indication; characterized by determining a first range of values of the measured physiological parameter associated with a first type of intervention action of the plurality of intervention actions, wherein the first type of intervention action corresponds to performance of a medical action in response to the alarm indication; determining a second range of values of the measured physiological parameter associated with a second type of intervention action of the plurality of intervention actions, wherein the second type of intervention corresponds to performing no medical action in response to the alarm indication; and displaying the first range of values, the second range of values, a threshold between the first range of values and the second range of values, and instances of the first type of intervention action of the plurality of interventions actions in the first range of values and instances of the second type of intervention action of the plurality of intervention actions. receiving, at a medical device , an alarm indication associated with a default alarm threshold for a measured physiological parameter; detecting that a clinician is accessing the medical device in response to the alarm indication; displaying an alarm message associated with the alarm indication based at least in part on the detecting; storing a plurality of intervention actions associated with an action of the clinician in response to the alarm indication; characterized by determining a first range of values of the measured physiological parameter associated with a first type of intervention action of the plurality of intervention actions, wherein the first type of intervention action corresponds to performance of a medical action in response to the alarm indication; determining a second range of values of the measured physiological parameter associated with a second type of intervention action of the plurality of intervention actions, wherein the second type of intervention corresponds to performing no medical action in response to the alarm indication; and displaying the first range of values, the second range of values, a threshold between the first range of values and the second range of values, and instances of the first type of intervention action of the plurality of interventions actions in the first range of values and instances of the second type of intervention action of the plurality of intervention actions.
A transmitting apparatus comprising: a stream generating section configured to generate an audio stream in which an audio frame including audio compression data obtained by performing encoding processing on audio data is continuously arranged, wherein the audio compression data comprises channel coded data and object coded data constituting 3D audio transport data; an information inserting section configured to insert tag information indicating that the audio compression data of a predetermined sound unit of object coded data is included into the audio frame; and a transmitting section configured to transmit a container stream of a predetermined format including the audio stream into which the tag information is inserted. a stream generating section configured to generate an audio stream in which an audio frame including audio compression data obtained by performing encoding processing on audio data is continuously arranged, wherein the audio compression data comprises channel coded data and object coded data constituting 3D audio transport data; an information inserting section configured to insert tag information indicating that the audio compression data of a predetermined sound unit of object coded data is included into the audio frame; and a transmitting section configured to transmit a container stream of a predetermined format including the audio stream into which the tag information is inserted.
A method of preparing a urea grease, said method comprising: (I) separately and continuously introducing, into a reactor equipped with a rotating portion, an inner wall, a first inlet, and a second inlet, a first base oil via the first inlet and a second base oil via the second inlet, to obtain a mixture solution in the reactor, wherein the first base oil comprises an amine mixture comprising an alicyclic monoamine and a chain aliphatic monoamine and the second base oil comprises a diisocyanate compound, and (II) applying a shear rate of 10 3 s -1 or more to the mixture solution in the reactor by a gap between the rotating portion and the inner wall of the reactor, to obtain a urea grease. (I) separately and continuously introducing, into a reactor equipped with a rotating portion, an inner wall, a first inlet, and a second inlet, a first base oil via the first inlet and a second base oil via the second inlet, to obtain a mixture solution in the reactor, wherein the first base oil comprises an amine mixture comprising an alicyclic monoamine and a chain aliphatic monoamine and the second base oil comprises a diisocyanate compound, and (II) applying a shear rate of 10 3 s -1 or more to the mixture solution in the reactor by a gap between the rotating portion and the inner wall of the reactor, to obtain a urea grease.
System comprising an apparatus and a track for the analysis of the condition of at least part of a pipeline wall, said apparatus including a body having a longitudinal axis substantially parallel to the track defining the inspection direction; the track is configured to be mounted on an external surface of the pipeline and the body of the apparatus is configured to be mounted and moved on the track , means for inducing a magnetic flux into, and through, the wall of the pipeline adjacent the location of the apparatus, said apparatus including a first shoe for inducing a magnetic flux into an air gap between an underside of the body and the external surface of the pipeline, and at least partially through, the wall of the pipeline adjacent a location of the apparatus and then back through the air gap between the underside of the body and a second shoe of the apparatus , spaced from the first shoe, and processing means for providing data relating to the magnetic flux and said processing means include first and second sensor arrays (30; 30') each including three sensors configured in a tri-axial sensor array configured with their respective axes offset by 90 degrees to each other to detect variation in the said magnetic flux along said at least three axes with regard to the wall of the pipeline in order to provide data representative of the condition of the wall of the pipeline and at least one proximity sensor is provided which is used to detect and determine a change in condition of the pipeline at, or near to the external surface of the pipeline and wherein said at least first and second tri-axial sensor arrays are within the body and spaced apart along an axis perpendicular to said longitudinal axis of the said body and the said sensors in each tri-axial sensor array are spaced apart along respective axes which are substantially parallel to said longitudinal axis of said body and the processing means are adapted to receive data from said sensors for analysis, and changes in the data are used to provide information showing the length, width and height components of a defect detected in the pipeline wall which has caused detected variation in the magnetic flux.
Stopper comprising a shaped element , suitable for being associated to a container as its closure, and an insert in a composite material, associated with the shaped element , wherein the insert has at least one anchor stem and a screen , and the shaped element has at least a channel , communicating with at least one of the external surfaces of the shaped element , wherein said anchor stem can be inserted, the screen acting as a protection for said external surface of said shaped element , wherein said screen of the insert has a side facing the external surface of the shaped element and a protruding element on said side and said external surface of said shaped element has one slot, having a shape corresponding to that of said protruding element , characterized in that the composite material comprises sterilized cork powder and a thermoplastic compound based on SBS and/or SEBS.
A method for manufacturing a filtering module comprising the steps of: - forming a multilayer body comprising: a filter layer of semiconductor material and having a thickness of less than 10 μm; a first structural layer coupled to a first side of the filter layer; a bonding layer coupled to a second side, opposite to the first side, of the filter layer; and a second structural 10 layer coupled to the bonding layer , wherein the step of forming the filter layer comprises carrying out an epitaxial growth on the first structural layer; - forming a recess in the first structural layer which extends throughout its thickness; - forming a hydrophobic layer on the first side of the filter layer by depositing hydrophobic material on the first structural layer and patterning said hydrophobic material so as to define an etching mask for the step of removal of selective portions of the filter layer ; - removing selective portions, exposed through the recess and not protected by the hydrophobic layer , of the filter layer , to form a plurality of openings , which extend throughout the thickness of the filter layer , until the bonding layer is reached; and - completely removing the second structural layer and the bonding layer to connect fluidically the first and second sides of the filter layer thus forming a filtering membrane designed to inhibit passage of contaminating particles. - forming a multilayer body comprising: a filter layer of semiconductor material and having a thickness of less than 10 μm; a first structural layer coupled to a first side of the filter layer; a bonding layer coupled to a second side, opposite to the first side, of the filter layer; and a second structural 10 layer coupled to the bonding layer , wherein the step of forming the filter layer comprises carrying out an epitaxial growth on the first structural layer; - forming a recess in the first structural layer which extends throughout its thickness; - forming a hydrophobic layer on the first side of the filter layer by depositing hydrophobic material on the first structural layer and patterning said hydrophobic material so as to define an etching mask for the step of removal of selective portions of the filter layer ; - removing selective portions, exposed through the recess and not protected by the hydrophobic layer , of the filter layer , to form a plurality of openings , which extend throughout the thickness of the filter layer , until the bonding layer is reached; and - completely removing the second structural layer and the bonding layer to connect fluidically the first and second sides of the filter layer thus forming a filtering membrane designed to inhibit passage of contaminating particles.
Insulating device with integrated cooling-medium channels for dissipating heat loss of a stator of an electric machine, having an insulating body with a plastic material in which busbars are received, wherein the cooling-medium channels are integrated in the plastic material of the insulating body and the insulating body is formed in a single-part embodiment or in a multi-part embodiment , characterized in that the cooling-medium channels are injection-moulded in the region of an end face of the insulating body .
A tire comprising a tread portion that includes a base rubber and a cap rubber located on an outer side of the base rubber in a tire radial direction, wherein a thickness of the base rubber in the tire radial direction is 1 mm or more, 30 °C tanδ of the base rubber is 0.20 or less, and a ratio 0 °C tanδ/30 °C tanδ of 0 °C tanδ to 30 °C tanδ of the base rubber is 2.90 or more, where the 30 °C tanδ is tanδ at 10 Hz and 30 °C, and the 0 °C tanδ is tanδ at 10 Hz and 0 °C, and wherein a rectangular rate of a contact patch shape when the tire is attached to an applicable rim, filled to a prescribed internal pressure, and placed under a maximum load in a state in which a tire rotation axis is parallel to a contact patch is 70 % to 95 %, and wherein the rectangular rate of the contact patch shape of the tread portion is calculated according to the following equation: rectangular rate of contact patch shape % = 100 × La + Lb / 2 / Lc where Lc is the contact patch length in the part corresponding to the tire equatorial plane (CL) and La and Lb are the contact patch lengths at the left and right positions of 80 % of the contact patch shape maximum width (Wmax) with respect to the tire equatorial plane (CL). a tread portion that includes a base rubber and a cap rubber located on an outer side of the base rubber in a tire radial direction, wherein a thickness of the base rubber in the tire radial direction is 1 mm or more, 30 °C tanδ of the base rubber is 0.20 or less, and a ratio 0 °C tanδ/30 °C tanδ of 0 °C tanδ to 30 °C tanδ of the base rubber is 2.90 or more, where the 30 °C tanδ is tanδ at 10 Hz and 30 °C, and the 0 °C tanδ is tanδ at 10 Hz and 0 °C, and wherein a rectangular rate of a contact patch shape when the tire is attached to an applicable rim, filled to a prescribed internal pressure, and placed under a maximum load in a state in which a tire rotation axis is parallel to a contact patch is 70 % to 95 %, and wherein the rectangular rate of the contact patch shape of the tread portion is calculated according to the following equation: rectangular rate of contact patch shape % = 100 × La + Lb / 2 / Lc where Lc is the contact patch length in the part corresponding to the tire equatorial plane (CL) and La and Lb are the contact patch lengths at the left and right positions of 80 % of the contact patch shape maximum width (Wmax) with respect to the tire equatorial plane (CL).
A method for implementing Virtual Private Network, VPN, cross-domain, comprising: receiving , by a border node, an advertisement message which carries VPN route information and is sent by a first node to a second node, wherein the border node supports Internet Protocol Version 6 Segment Routing, SRv6, capability, and the first node and the second node belong to different domains; and by the border node, assigning VPN identity information to a VPN route corresponding to the VPN route information, adding the VPN identity information into the advertisement message, and sending the advertisement message to the second node, wherein the VPN identity information comprises at least one of: a VPN Segment ID, SID, and a VPN label . receiving , by a border node, an advertisement message which carries VPN route information and is sent by a first node to a second node, wherein the border node supports Internet Protocol Version 6 Segment Routing, SRv6, capability, and the first node and the second node belong to different domains; and by the border node, assigning VPN identity information to a VPN route corresponding to the VPN route information, adding the VPN identity information into the advertisement message, and sending the advertisement message to the second node, wherein the VPN identity information comprises at least one of: a VPN Segment ID, SID, and a VPN label .
A blank for the manufacture of a dental prosthesis, the blank being formed from a flesh-colored material and a tooth-colored material , in particular each based on plastics material, which materials are joined to one another by bonding, by polymerization, by injection molding and/or by monobloc production, wherein the boundary surface between the materials, as viewed in the course of the dental arch, is wave-shaped having mutually alternating grooves and ribs in the region of the anterior teeth to be produced, and as viewed in the oral-vestibular direction, is radially formed, characterized in that the boundary surface , at least in the region of the molars and in the region of the premolars - as viewed in an oral-vestibular direction - has grooves and ribs parallel to each other, which form crests and troughs of the waveform.
A multiple-pane insulating glazing unit having a between-pane space , the multiple-pane insulating glazing unit comprising a pane having a surface coated with a low-emissivity coating, said surface of said pane being exposed to said between-pane space , the low-emissivity coating comprising, in sequence moving outwardly from said surface of said pane, a dielectric base coat comprising oxide film, nitride film, or oxynitride film, a first infrared-reflective layer , a first nickel-aluminum blocker layer in contact with the first infrared-reflective layer , a first dielectric spacer coat comprising an oxide film in contact with the first nickel-aluminum blocker layer , a second infrared-reflective layer , a second nickel-aluminum blocker layer in contact with the second infrared-reflective layer , a second dielectric spacer coat comprising an oxide film in contact with the second nickel-aluminum blocker layer , a third infrared-reflective layer , a third nickel-aluminum blocker layer in contact with the third infrared-reflective layer , and a dielectric top coat comprising an oxide film in contact with the third nickel-aluminum blocker layer , wherein nickel and aluminum are the only metals dispersed along an entire thickness of the first nickel-aluminum blocker layer , along an entire thickness of the second nickel-aluminum blocker layer , and along an entire thickness of the third nickel-aluminum blocker layer , wherein the first, second, and third nickel-aluminum blocker layers are each devoid of metals other than nickel and aluminum, the multiple-pane insulating glazing unit having a solar heat gain coefficient of less than 0.2.
A method of preparing a food, comprising:- (a) treating smoke with a size exclusion filter comprising pores consisting of sizes in the range of 0.3nm to 1nm to selectively remove one or more polycyclic aromatic hydrocarbons (PAHs) that contain 4 or more benzene rings therefrom, wherein the filter has no pores of size greater than 1nm in size, and (b) contacting the treated smoke of (a) with a food. (a) treating smoke with a size exclusion filter comprising pores consisting of sizes in the range of 0.3nm to 1nm to selectively remove one or more polycyclic aromatic hydrocarbons (PAHs) that contain 4 or more benzene rings therefrom, wherein the filter has no pores of size greater than 1nm in size, and (b) contacting the treated smoke of (a) with a food.
Busbar system for consumers , in particular for lamps, having a mounting rail and a current conducting profile which is disposed inside the mounting rail and comprises wires and leads for supplying power and/or transmitting control signals which extend in the longitudinal direction of the mounting rail and can be contacted by the consumers , wherein the mounting rail is configured toward a first side ( u ) such that the consumers can be arranged and the wires or leads of the current conducting profile can be contacted by the consumers , wherein a portion (6.2) of the wires or leads of the current conducting profile for a further consumer can be contacted from a second side (o) of the mounting rail facing away from the first side ( u ), wherein the mounting rail comprises two legs (2.1, 2.2) and a connecting web (2.3); characterized in that the portion (6.2) of the wires or leads of the current conducting profile for a further consumer is disposed on the connecting web (2.3) of the mounting rail.
A solid composition, characterized by comprising (S)-1-(2-hydroxyethyl)-4-methyl-N-[4-(methylsulfonyl)phenyl]-5-[2-(trifluoromethyl)phenyl]-1H-pyrrole-3-carboxamide which is a compound having the following formula (I): and lactose hydrate having an average particle diameter in the range of 5 to 50 μm.
A method for determining a through-flow quantity in a fluid delivery system, in which a fluid is delivered by a pump, the pump comprising an electromotor and the electromotor being operated at a first speed (n 1 ) when said electromotor is in operation and the through-flow quantity (Q) being determined from a measured motor power (P) and the speed (n), said method comprising: - increasing the first speed (n 1 ) to a second speed (n 2 ) which is greater than the first speed (n 1 ); - determining a second through-flow quantity (Q(n 2 )) at the second speed (n 2 ) from the motor power (P(n 2 )) and the second speed (n 2 ); - determining a third through-flow quantity (Q ∗ (n 1 )) from the second through-flow quantity (Q(n 2 )) by extrapolation of the second speed (n 2 ) to the first speed (n 1 ) in accordance with a known relationship between the through-flow quantity (Q) and the speed (n), wherein the third through-flow quantity (Q ∗ (n 1 )) is the target variable; and, - once the second through-flow quantity (Q(n 2 ) has been determined, reducing the speed (n) back to the first speed (n 1 ). - increasing the first speed (n 1 ) to a second speed (n 2 ) which is greater than the first speed (n 1 ); - determining a second through-flow quantity (Q(n 2 )) at the second speed (n 2 ) from the motor power (P(n 2 )) and the second speed (n 2 ); - determining a third through-flow quantity (Q ∗ (n 1 )) from the second through-flow quantity (Q(n 2 )) by extrapolation of the second speed (n 2 ) to the first speed (n 1 ) in accordance with a known relationship between the through-flow quantity (Q) and the speed (n), wherein the third through-flow quantity (Q ∗ (n 1 )) is the target variable; and, - once the second through-flow quantity (Q(n 2 ) has been determined, reducing the speed (n) back to the first speed (n 1 ).