mhurhangee/patent-ind-claim-en huggingface dataset:
Method in an operating system for scheduling processing resources on a multi-core chip , the multi-core chip comprises a plurality of processor cores , the operating system is configured to schedule processing resources to an application to be executed on the multi-core chip , wherein the multi-core chip is characterised by one or several processor cores of a first type, which are adapted to operate on either a first operating frequency or at least one second frequency, and one or several processor cores of a second type, which are adapted to operate on either the first operating frequency or to be switched off, the method comprises the steps of: allocating a plurality of processor cores , for parallel computing, to the application , based on an application related parameter of an application generated request for computing resources, when a sequential portion of the application is executing on only one processor core of the first type, switching off at least one processor core of the second type allocated to the application , not executing the sequential portion of the application , and increasing the frequency of the one processor core of the first type executing the application ; wherein the processor cores which are adapted to operate on either a first operating frequency and at least one second frequency are spread out over the multi-core chip and surrounded by at least one processor core which is adapted to operate on either the first operating frequency or to be switched off, such that hot spots on the multi-core chip are avoided, and wherein the processor cores allocated to the application are close to each other. allocating a plurality of processor cores , for parallel computing, to the application , based on an application related parameter of an application generated request for computing resources, when a sequential portion of the application is executing on only one processor core of the first type, switching off at least one processor core of the second type allocated to the application , not executing the sequential portion of the application , and increasing the frequency of the one processor core of the first type executing the application ; wherein the processor cores which are adapted to operate on either a first operating frequency and at least one second frequency are spread out over the multi-core chip and surrounded by at least one processor core which is adapted to operate on either the first operating frequency or to be switched off, such that hot spots on the multi-core chip are avoided, and wherein the processor cores allocated to the application are close to each other.
Warp knitting machine having a bar arrangement which comprises a plurality of guide bars , the movements of which in an offset direction are controlled via a pattern control arrangement , the pattern control arrangement having for each guide bar a control surface revolving around a rotation axis, the control surfaces of at least two guide bars being arranged on a common, unchangeable structural element , characterized in that the structural element is formed integrally with the control surfaces .
A first device , the first device being a street lamp, for driving a first load , the first load being a light-emitting-element, which first device comprises - a first driver configured to be coupled to the first load and configured to drive the first load , and - a first controller coupled to the first driver and configured to control the first driver , which first controller is further configured to receive a first position signal from a first position sensor , which first position signal is configured to define a first position of the first device , and which first controller is further configured to receive a first direction signal from a first direction sensor , which first direction signal is configured to define a first direction of the first device ; wherein the first controller is configured to forward via wireless communication the first position signal, the first direction signal and an identification together to a commissioning apparatus for distinguishing the first device and a second device from each other; - the first position sensor coupled to the first controller ; - the first direction sensor coupled to the first controller . - a first driver configured to be coupled to the first load and configured to drive the first load , and - a first controller coupled to the first driver and configured to control the first driver , which first controller is further configured to receive a first position signal from a first position sensor , which first position signal is configured to define a first position of the first device , and which first controller is further configured to receive a first direction signal from a first direction sensor , which first direction signal is configured to define a first direction of the first device ; - the first position sensor coupled to the first controller ; - the first direction sensor coupled to the first controller .
A method of producing an oil-in-water type emulsion composition, said method comprising: the step of forming an intermediate phase by mixing a first surfactant, a second surfactant, and water; the step of adding an oil phase component to said intermediate phase; and the step of further adding an aqueous phase component, wherein said first surfactant forms an L α phase in at least one aqueous solution having a concentration of 40 to 80% by mass, and said second surfactant forms an H 1 phase in at least one aqueous solution having a concentration of 40 to 80% by mass, wherein said oil-in-water type emulsion composition is preferably a skin external preparation, more preferably a cosmetic, still more preferably a skin external preparation for use in maturation of skin horny layer, wherein the total concentration of said first and second surfactants in said intermediate phase is 20 to 85% by mass. the step of forming an intermediate phase by mixing a first surfactant, a second surfactant, and water; the step of adding an oil phase component to said intermediate phase; and the step of further adding an aqueous phase component, wherein said first surfactant forms an L α phase in at least one aqueous solution having a concentration of 40 to 80% by mass, and said second surfactant forms an H 1 phase in at least one aqueous solution having a concentration of 40 to 80% by mass, wherein said oil-in-water type emulsion composition is preferably a skin external preparation, more preferably a cosmetic, still more preferably a skin external preparation for use in maturation of skin horny layer, wherein the total concentration of said first and second surfactants in said intermediate phase is 20 to 85% by mass.
An LED luminaire comprising: an array of LED elements , each configured to emit light, disposed in a first plane ; and an optical element comprising one or more partially reflective elements , each partially reflective element being positioned so as to directly receive light emitted by an LED element of the array of LED elements and comprising a light incident surface positioned perpendicularly to the first plane and, wherein each partially reflective element is configured to reflect a first part of received light using at least the light incident surface and transmit a second, different part of the received light, characterized in that at least one partially reflective element is positioned such that the virtual source of the first part of the directly received light, which is reflected using the light incident surface, lies between the LED element from which the partially reflective element directly receives light and an adjacent LED element. an array of LED elements , each configured to emit light, disposed in a first plane ; and an optical element comprising one or more partially reflective elements , each partially reflective element being positioned so as to directly receive light emitted by an LED element of the array of LED elements and comprising a light incident surface positioned perpendicularly to the first plane and, wherein each partially reflective element is configured to reflect a first part of received light using at least the light incident surface and transmit a second, different part of the received light, characterized in that at least one partially reflective element is positioned such that the virtual source of the first part of the directly received light, which is reflected using the light incident surface, lies between the LED element from which the partially reflective element directly receives light and an adjacent LED element.
Stator for an electric machine having a stator body with a plurality of grooves distributed in the circumferential direction of the stator body , and a hairpin winding applied to the stator body and having conductors for a plurality of phases , wherein the conductors are each formed by a plurality of conductively connected conductor clips (9-12) which each have two groove portions which are connected by a connecting portion , wherein a respective pole of the respective phase is formed by a plurality of groove portion groups each comprising groove portions arranged in a groove group of mutually adjacent grooves in the same layer of the hairpin winding , wherein the conductor clips (9-12) which form the groove portions of the respective groove portion group form a conductor clip group which connects adjacent poles of the respective phase , in that the connecting portions of the conductor clips (9-12) in each case connect groove portions which connect groove portion groups of adjacent poles of the respective phase , wherein between the groove portions of the respective conductor clip (9-12) there is in the circumferential direction a number of skipped grooves which is specified by a skip width (24-26) defined by the clip shape of the respective conductor clip (9-12), wherein at least two of the conductor clip groups of the respective phase have a different variation or combination of the skip widths of the conductor clips (9-12) of the respective conductor clip group, characterised in that at least one conductor of at least one phase within a basket of the hairpin winding formed by two layers (A, B) of the hairpin winding in the circumferential direction of the stator is routed twice in the same direction around a central axis of the stator .
Cover strip for attachment to an installation part , for example a window or door frame, at the transition to an adjoining wall or plaster region , having a cover profile which can be fastened to the installation part , wherein the cover strip has an integrated sealing system with a flexible sealing tab which is fastened to the cover profile with a first edge region in the longitudinal direction of the cover strip and comprises at the second free edge region a permanently elastic adhesive bead for fixing to the adjacent wall or plaster region , characterised in that the flexible sealing tab and the permanently elastic adhesive bead of the integrated sealing system are covered in the intended installation position on the visible side by the cover profile and - if present - by a protective lip .
A diffuser for a gas turbine engine comprising: an annular fluid passage fluidly connecting a diffuser inlet to a diffuser outlet ; and a plurality of airfoils located in the annular fluid passage and each having debris collection means, characterised in that : the debris collection means includes a surface adhesion treatment included on a leading edge of each of the plurality of airfoils . an annular fluid passage fluidly connecting a diffuser inlet to a diffuser outlet ; and a plurality of airfoils located in the annular fluid passage and each having debris collection means, characterised in that : the debris collection means includes a surface adhesion treatment included on a leading edge of each of the plurality of airfoils .
Fifth wheel assembly comprising a primary coupling device and a fifth wheel plate , wherein the fifth wheel plate has a trailer surface , wherein the trailer surface has an outwardly facing normal (N), wherein the fifth wheel plate has an retraction opening, wherein the retraction opening extends in a retraction direction, wherein the primary coupling device comprises a base body , a drive , a coupling mechanism , a cover device and a plug element , wherein the base body is designed to be fixed to the fifth wheel assembly and/or the trailer, wherein the plug element has energy conducting contacts which point in particular in a plug-in direction (V), wherein the drive is mechanically connected to the cover device via the coupling mechanism , wherein the cover device has at least one cover element , wherein the cover element is displaceable by the drive between a first position and a second position, wherein in the first position of the cover element the plug element is released, and wherein in the second position of the cover element the plug element is covered, characterized in that the retraction direction is at least substantially parallel to the plug-in direction (V). wherein the fifth wheel plate has a trailer surface , wherein the trailer surface has an outwardly facing normal (N), wherein the fifth wheel plate has an retraction opening, wherein the retraction opening extends in a retraction direction, wherein the primary coupling device comprises a base body , a drive , a coupling mechanism , a cover device and a plug element , wherein the base body is designed to be fixed to the fifth wheel assembly and/or the trailer, wherein the plug element has energy conducting contacts which point in particular in a plug-in direction (V), wherein the drive is mechanically connected to the cover device via the coupling mechanism , wherein the cover device has at least one cover element , wherein the cover element is displaceable by the drive between a first position and a second position, wherein in the first position of the cover element the plug element is released, and wherein in the second position of the cover element the plug element is covered, characterized in that the retraction direction is at least substantially parallel to the plug-in direction (V).
A method for providing an image of a lung comprising the steps of: 1. recording images of the lung encoding data for the lung in terms of Cartesian coordinates; 2. reconstructing a 3D motion field from the information encoded in the recorded images; 3(a) segmenting an image of the lung into a plurality of segments; and 3(b) associating each segment with regions of the 3D motion field wherein steps 1, 2, 3(a) and 3(b) are automated and wherein the 3D motion field comprises measurements of lung tissue movement in the recorded images. 1. recording images of the lung encoding data for the lung in terms of Cartesian coordinates; 2. reconstructing a 3D motion field from the information encoded in the recorded images; 3(a) segmenting an image of the lung into a plurality of segments; and 3(b) associating each segment with regions of the 3D motion field wherein steps 1, 2, 3(a) and 3(b) are automated and wherein the 3D motion field comprises measurements of lung tissue movement in the recorded images.
A formaldehyde free adhesive composition comprising: (a) an aqueous emulsion of acrylic polymer; (b) one or more epoxy compound dispersions or acrylic-epoxy hybrid dispersions; (c) at least one water soluble, water emulsifiable or water dispersible epoxy curing agent selected from the group consisting of polyamines, polyamides, amidoamines, carboxylic functional polyesters, carboxylic functional polyacrylates, anhydrides, mercaptans, polymercaptans, cyclic amidines, and combinations thereof; and (d) an aqueous continuous phase; wherein said acrylic polymer has at least one structural unit of one or more ethylenically unsaturated monomers carrying at least one adhesion prompting function group, and said acrylic polymer has a glass transition temperature of -40°C to 15°C as determined by differential scanning calorimetry, and wherein the adhesion prompting function group is selected from the group consisting of ureido, alkoxysilane and phosphorous groups. (a) an aqueous emulsion of acrylic polymer; (b) one or more epoxy compound dispersions or acrylic-epoxy hybrid dispersions; (c) at least one water soluble, water emulsifiable or water dispersible epoxy curing agent selected from the group consisting of polyamines, polyamides, amidoamines, carboxylic functional polyesters, carboxylic functional polyacrylates, anhydrides, mercaptans, polymercaptans, cyclic amidines, and combinations thereof; and (d) an aqueous continuous phase;
An apparatus for locating an elongate object in a trench in a floor of a body of water, the apparatus comprising a body ; first trench forming means comprising a respective first jetting device adapted to be arranged on each lateral side of an elongate object and to direct at least one respective jet of liquid to at least partially form a trench in a floor of a body of water; and second trench forming means comprising a respective mechanical cutting device adapted to be arranged on each lateral side of the elongate object and to cut a respective part of a trench in the floor of the body of water, the second trench forming means is moveable relative to the body between a stowed position and a deployed position, independently of the first trench forming means; characterised in that the second trench forming means includes at least one second jetting device adapted to direct at least one respective jet of liquid at material of the floor of the body of water located between the respective parts of said trench formed by the second trench forming means; further comprising guard means adapted to be located between the second trench forming means and the elongate object for preventing the elongate object from coming into contact with the second trench forming means. wherein the guard means includes at least one aperture to enable at least one said second jetting device to direct at least one jet of liquid through said aperture at material of the floor of the body of water located between the respective parts of the trench formed by the second trench forming means. a body ; first trench forming means comprising a respective first jetting device adapted to be arranged on each lateral side of an elongate object and to direct at least one respective jet of liquid to at least partially form a trench in a floor of a body of water; and second trench forming means comprising a respective mechanical cutting device adapted to be arranged on each lateral side of the elongate object and to cut a respective part of a trench in the floor of the body of water, the second trench forming means is moveable relative to the body between a stowed position and a deployed position, independently of the first trench forming means; characterised in that the second trench forming means includes at least one second jetting device adapted to direct at least one respective jet of liquid at material of the floor of the body of water located between the respective parts of said trench formed by the second trench forming means; further comprising guard means adapted to be located between the second trench forming means and the elongate object for preventing the elongate object from coming into contact with the second trench forming means. wherein the guard means includes at least one aperture to enable at least one said second jetting device to direct at least one jet of liquid through said aperture at material of the floor of the body of water located between the respective parts of the trench formed by the second trench forming means.
A system for enabling collaboration between a plurality of extended reality, XR, devices , the system comprising: a first XR device having a first set of features; a second XR device having a second set of features; and a hub device communicatively connected to the first XR device and the second XR device , wherein the first XR device is configured to provide the first set of features to the hub device , characterized in that the second XR device is configured to use at least one of the features defined in the first set of features, and wherein the second XR device is configured to subscribe to the hub device to be informed about the first set of features in case the first set of features is provided to the hub device . a first XR device having a first set of features; a second XR device having a second set of features; and a hub device communicatively connected to the first XR device and the second XR device , wherein the first XR device is configured to provide the first set of features to the hub device , characterized in that the second XR device is configured to use at least one of the features defined in the first set of features, and wherein the second XR device is configured to subscribe to the hub device to be informed about the first set of features in case the first set of features is provided to the hub device .
A steering column assembly comprising: a telescopic shroud having an outer shroud portion and an inner shroud portion , an end of the inner shroud portion extending into the outer shroud portion ; a plate fixed to the inner shroud portion including a slot that extends axially along the inner shroud portion; a block that is releasably interlockable with the plate to prevent telescopic motion of the inner shroud portion relative to the outer shroud portion ; and a clamp assembly operable between a clamped condition in which the outer shroud portion clamps around the inner shroud portion and an unclamped condition in which the outer shroud portion is unclamped from the inner shroud portion , characterised in that the assembly further comprises four bearing surfaces arranged in two pairs facing, one bearing surface of each facing pair being associated with the inner shroud portion and the other bearing surface of each facing pair being associated with the outer shroud portion , at least one adjustable bearing element including a respective one of said bearing surfaces, the adjustable bearing element being adjustable relative to one of the inner shroud portion or outer shroud portion for setting the amount rotational free play between the inner shroud portion and outer shroud portion when the assembly is in an unclamped condition. a telescopic shroud having an outer shroud portion and an inner shroud portion , an end of the inner shroud portion extending into the outer shroud portion ; a plate fixed to the inner shroud portion including a slot that extends axially along the inner shroud portion; a block that is releasably interlockable with the plate to prevent telescopic motion of the inner shroud portion relative to the outer shroud portion ; and a clamp assembly operable between a clamped condition in which the outer shroud portion clamps around the inner shroud portion and an unclamped condition in which the outer shroud portion is unclamped from the inner shroud portion , characterised in that the assembly further comprises four bearing surfaces arranged in two pairs facing, one bearing surface of each facing pair being associated with the inner shroud portion and the other bearing surface of each facing pair being associated with the outer shroud portion , at least one adjustable bearing element including a respective one of said bearing surfaces, the adjustable bearing element being adjustable relative to one of the inner shroud portion or outer shroud portion for setting the amount rotational free play between the inner shroud portion and outer shroud portion when the assembly is in an unclamped condition.