mhurhangee/patent-ind-claim-en huggingface dataset:
Drywall construction combination profiled section for walls and ceilings of a house serving for static load dissipation of the house, wherein the loading of the house is to be taken up by storey-high, aligned wall studs or beams, which are arranged in a grid, are composed of combination profiled sections, are within a system plane and are cladded in each case on both sides by building panels on outer drywall construction contact surfaces, said building panels to be fastened directly thereto by means of separate connecting means, wherein the combination profiled section consists of a cold-formed steel sheet profiled section with splayed flanges and with at least one web in-between, wherein each flange has at least one flat drywall construction contact surface and the latter runs longitudinally with respect to the profiled section, wherein, on at least one flange side of the combination profiled section, the drywall construction contact surface consists of two functional sections, specifically a) of a static section with a sheet metal thickness of at least 1.0 mm, and b) of a thin-walled cladding section with a sheet metal thickness of approx. 0.6 to 0.75 mm, wherein the thicker walled static section is present on both flange sides, and all of the sections of the combination profiled section consist of the same sheet metal band semifinished product, characterized in that the two functional sections are manufactured from a sheet metal band semifinished product which has two different material thicknesses. a) of a static section with a sheet metal thickness of at least 1.0 mm, and b) of a thin-walled cladding section with a sheet metal thickness of approx. 0.6 to 0.75 mm,
An inspection system for inspecting cells of a ceramic honeycomb structure having an endface , an opposing endface , and walls extending across and between the opposing endfaces forming cells that extend between, and are open at, the endfaces , the system comprising: an illuminator configured to provide line illumination on the endface over a plurality of cells to illuminate a line portion of the endface that covers the plurality of cells ; a movable stage that movably supports the ceramic honeycomb structure so that the line illumination scans over the endface over a scan path ; an optical imaging system having an axis (A2) and configured to form a line image of the illuminated plurality of cells from light reflected off the illuminated line portion of the endface ; a line-scan image sensor arranged to receive and detect the line image and generate therefrom corresponding line-image signals; and a controller configured to process the line-image signals to form a composite image of the endface and determine therefrom at least one parameter of at least one cell ; characterized in that the illuminator being configured to provide normal-incidence line illumination on the endface , and wherein the at least one parameter of the at least one cell is selected from the group of cell parameters comprising: cell corner angle, horizontal cell pitch, vertical cell pitch, horizontal wall thickness, vertical wall thickness, horizontal wall bow and vertical wall bow. an illuminator configured to provide line illumination on the endface over a plurality of cells to illuminate a line portion of the endface that covers the plurality of cells ; a movable stage that movably supports the ceramic honeycomb structure so that the line illumination scans over the endface over a scan path ; an optical imaging system having an axis (A2) and configured to form a line image of the illuminated plurality of cells from light reflected off the illuminated line portion of the endface ; a line-scan image sensor arranged to receive and detect the line image and generate therefrom corresponding line-image signals; and a controller configured to process the line-image signals to form a composite image of the endface and determine therefrom at least one parameter of at least one cell ; characterized in that the illuminator being configured to provide normal-incidence line illumination on the endface , and wherein the at least one parameter of the at least one cell is selected from the group of cell parameters comprising: cell corner angle, horizontal cell pitch, vertical cell pitch, horizontal wall thickness, vertical wall thickness, horizontal wall bow and vertical wall bow.
An IL-2Rβ binding protein, wherein the equilibrium dissociation constant for the IL-2Rβ of said binding protein is less than that of wild-type human IL-2 (hIL-2), and wherein said IL-2Rβ binding protein is an IL-2 mutein comprising amino acid substitutions at positions L80F, R81D, L85V, 186V, and I92F numbered in accordance with wild-type hIL-2.
Door bearing for a door of a refrigerated cabinet , whereas the door bearing comprises a bearing section for the door side for fixing the door bearing for the door and a bearing section for the cabinet head side for fixing the door on a cabinet head of the refrigerated cabinet , and whereas the bearing section for the cabinet head side is both movable in a longitudinal direction of the door bearing relative to the bearing section for the door side and pivotable relative to the bearing section for the door side, characterized in that the bearing section for the cabinet head side and the bearing section for the door side are in contact with each other in a positive-locking manner, and form the upper door bearing .
A front suspension device for a vehicle, comprising: a subframe (SF); a suspension arm having an outer end on which a front wheel is pivotally supported, and an inner end pivotally supported with respect to the subframe (SF); a subframe mounting portion for mounting the subframe (SF) to a vehicle body through a fastener from below on a rear side relative to a front-wheel axially supporting portion of the suspension arm ; and an upward bend inducing portion configured to bend the suspension arm substantially upwardly when a suspension arm frontal collision load is input via the front wheel to the suspension arm , wherein the suspension arm is a lower arm comprising a front axially supporting portion for the subframe (SF) and a rear axially supporting portion located on a rear side relative to the front-wheel axially supporting portion , wherein the upward bend inducing portion is formed between the front-wheel axially supporting portion and the rear axially supporting portion , wherein the upward bend inducing portion is formed in an upward curved portion of the lower arm in a side view of the vehicle, characterized in that the lower arm is composed of an upper member with an open lower side and a lower member with an open upper side, and wherein a rigidity of the lower member is lower than a rigidity of the upper member . a subframe (SF); a suspension arm having an outer end on which a front wheel is pivotally supported, and an inner end pivotally supported with respect to the subframe (SF); a subframe mounting portion for mounting the subframe (SF) to a vehicle body through a fastener from below on a rear side relative to a front-wheel axially supporting portion of the suspension arm ; and an upward bend inducing portion configured to bend the suspension arm substantially upwardly when a suspension arm frontal collision load is input via the front wheel to the suspension arm , wherein the suspension arm is a lower arm comprising a front axially supporting portion for the subframe (SF) and a rear axially supporting portion located on a rear side relative to the front-wheel axially supporting portion , wherein the upward bend inducing portion is formed between the front-wheel axially supporting portion and the rear axially supporting portion , wherein the upward bend inducing portion is formed in an upward curved portion of the lower arm in a side view of the vehicle, characterized in that the lower arm is composed of an upper member with an open lower side and a lower member with an open upper side, and wherein a rigidity of the lower member is lower than a rigidity of the upper member .
Method for the production of a food and/or food additive for use in animal feed for ruminants, in which an active substance, in particular vitamins and/or trace elements and/or amino acids and/or vital substances and/or medicinal products and/or feedingstuffs, at least partly in a matrix containing essentially fat, in particular as a mixture of fat, in particular triglyceride, the matrix being pre-mixed with the active substance in the form of matrix powder, in particular fat powder, and pellets with a press, in particular matrix press, in particular flat matrix press and/or compactor whereas pressed at a processing temperature below the melting point during and after pressing, the melting point of the fat, and in particular the fat mixture, being approximately 45 to 80°C.
A method of tracking a maximum efficiency operation point of a hydraulic turbine under a given power order and water head, comprising: obtaining a speed value by which a rotation speed of the hydraulic turbine is adjusted, referred to as a speed adjustment quantity for the hydraulic turbine and a corresponding change in flow quantity, wherein a rotation speed of the hydraulic turbine is adjusted based on the speed adjustment quantity; determining and monitoring a change ratio of the flow quantity with regard to the speed adjustment quantity based on the speed adjustment quantity and the corresponding change in flow quantity; and determining an adjustment manner in which the rotation speed is further adjusted based on the change ratio, wherein tracking the maximum efficiency operation point is performed by means of said adjusting and monitoring in a repetitive manner. obtaining a speed value by which a rotation speed of the hydraulic turbine is adjusted, referred to as a speed adjustment quantity for the hydraulic turbine and a corresponding change in flow quantity, wherein a rotation speed of the hydraulic turbine is adjusted based on the speed adjustment quantity; determining and monitoring a change ratio of the flow quantity with regard to the speed adjustment quantity based on the speed adjustment quantity and the corresponding change in flow quantity; and determining an adjustment manner in which the rotation speed is further adjusted based on the change ratio, wherein tracking the maximum efficiency operation point is performed by means of said adjusting and monitoring in a repetitive manner.
A cleaner, comprising: a cleaner body having therein a module mounting portion ; and a cleaning module detachably mounted to the module mounting portion , wherein the cleaning module includes: a rotatable cleaning member , and a holder , wherein the holder is insertable into or withdrawable from the module mounting portion in direction of a rotation axis of the cleaning member ; wherein the cleaning member is supported by the holder so as to be inserted into or withdrawn from the module mounting portion together with the holder , characterized in that the cleaner further comprises at least one rotation driving portion disposed at one side of the module mounting portion and configured to transmit a driving force to the cleaning member for rotating the cleaning member about a rotation shaft extending in a mounting direction of the cleaning module . a cleaner body having therein a module mounting portion ; and a cleaning module detachably mounted to the module mounting portion , wherein the cleaning module includes: a rotatable cleaning member , and a holder , wherein the holder is insertable into or withdrawable from the module mounting portion in direction of a rotation axis of the cleaning member ; wherein the cleaning member is supported by the holder so as to be inserted into or withdrawn from the module mounting portion together with the holder , characterized in that the cleaner further comprises at least one rotation driving portion disposed at one side of the module mounting portion and configured to transmit a driving force to the cleaning member for rotating the cleaning member about a rotation shaft extending in a mounting direction of the cleaning module . a rotatable cleaning member , and a holder , wherein the holder is insertable into or withdrawable from the module mounting portion in direction of a rotation axis of the cleaning member ; wherein the cleaning member is supported by the holder so as to be inserted into or withdrawn from the module mounting portion together with the holder , characterized in that the cleaner further comprises at least one rotation driving portion disposed at one side of the module mounting portion and configured to transmit a driving force to the cleaning member for rotating the cleaning member about a rotation shaft extending in a mounting direction of the cleaning module .
An apparatus comprising: a graphene field effect transistor where the graphene field effect transistor comprises a graphene channel and quantum dots provided overlaying the graphene channel , wherein the quantum dots comprise a first layer comprising quantum dots connected to a first ligand and a second layer comprising quantum dots connected to a second ligand , and wherein the first ligand is configured to cause the first layer to have a first refractive index and the second ligand is configured to cause the second layer to have a second refractive index wherein the second refractive index is different to the first refractive index, wherein the thickness of at least one of the layers of quantum dots is arranged to provide an anti-reflective coating, wherein the layers arranged to provide an anti-reflective coating are also arranged to transduce incident light into an electrical output. a graphene field effect transistor where the graphene field effect transistor comprises a graphene channel and quantum dots provided overlaying the graphene channel , wherein the quantum dots comprise a first layer comprising quantum dots connected to a first ligand and a second layer comprising quantum dots connected to a second ligand , and wherein the first ligand is configured to cause the first layer to have a first refractive index and the second ligand is configured to cause the second layer to have a second refractive index wherein the second refractive index is different to the first refractive index, wherein the thickness of at least one of the layers of quantum dots is arranged to provide an anti-reflective coating, wherein the layers arranged to provide an anti-reflective coating are also arranged to transduce incident light into an electrical output.
A curable composition comprised of : a) at least one salt of at least one ethylenically unsaturated carboxylic acid comprising six or more carbon atoms b) at least one multifunctional (meth)acrylate oligomer and c) at least one mono(meth)acrylate ester of an alcohol which, when polymerized as a homopolymer, has a glass transition temperature of at least 50°C as measured by Dynamic Mechanical Analysis in accordance with ASTM E1640-13 wherein the at least one salt comprises at least one polyvalent cation and additionally comprises a carboxylate portion that is not ethylenically unsaturated and/or an ethylenically unsaturated carboxylate portion containing fewer than six carbon atoms. a) at least one salt of at least one ethylenically unsaturated carboxylic acid comprising six or more carbon atoms b) at least one multifunctional (meth)acrylate oligomer and c) at least one mono(meth)acrylate ester of an alcohol which, when polymerized as a homopolymer, has a glass transition temperature of at least 50°C as measured by Dynamic Mechanical Analysis in accordance with ASTM E1640-13 wherein the at least one salt comprises at least one polyvalent cation and additionally comprises a carboxylate portion that is not ethylenically unsaturated and/or an ethylenically unsaturated carboxylate portion containing fewer than six carbon atoms.
A method for wireless communication, comprising: identifying two or more available transmission time intervals, TTIs, of different lengths for transmissions between a base station and a user equipment, UE; configuring a discontinuous reception, DRX, cycle based at least in part on the two or more available TTIs, the configuring comprising configuring the DRX cycle for the first TTI; monitoring for a first control signal transmitted on a first component carrier associated with the first TTI based at least in part on the configured DRX cycle; and monitoring for a second control signal transmitted on another component carrier associated with the second TTI during active durations of the DRX cycle for the first TTI. identifying two or more available transmission time intervals, TTIs, of different lengths for transmissions between a base station and a user equipment, UE; configuring a discontinuous reception, DRX, cycle based at least in part on the two or more available TTIs, the configuring comprising configuring the DRX cycle for the first TTI; monitoring for a first control signal transmitted on a first component carrier associated with the first TTI based at least in part on the configured DRX cycle; and monitoring for a second control signal transmitted on another component carrier associated with the second TTI during active durations of the DRX cycle for the first TTI.
A gas turbine engine, comprising: an ignition system (3; 3A, 3B), the ignition system (3; 3A, 3B) having an energy output (3-2) and configured to supply operational energy to the energy output (3-2); and a chip zapping unit having an energy input (4-1), the energy input (4-1) coupled to the energy output (3-2) of the ignition system (3; 3A, 3B) to receive the operational energy therefrom, wherein the ignition system (3; 3A, 3B) further comprises an energy input (3-1), and wherein the gas turbine engine further comprises: an energy generation unit having an energy output (1-1) and configured to supply operational energy; and an electronic control unit (2; 2-1, 2-2) having an energy input (2-1) and an energy output (2-2), the energy input (2-1) of the electronic control unit (2; 2-1, 2-2) coupled to the energy output (1-1) of the energy generation unit , the energy output (2-2) of the electronic control unit (2; 2-1, 2-2) coupled to the energy input (3-1) of the ignition system (3; 3A, 3B). an ignition system (3; 3A, 3B), the ignition system (3; 3A, 3B) having an energy output (3-2) and configured to supply operational energy to the energy output (3-2); and a chip zapping unit having an energy input (4-1), the energy input (4-1) coupled to the energy output (3-2) of the ignition system (3; 3A, 3B) to receive the operational energy therefrom, wherein the ignition system (3; 3A, 3B) further comprises an energy input (3-1), and wherein the gas turbine engine further comprises: an energy generation unit having an energy output (1-1) and configured to supply operational energy; and an electronic control unit (2; 2-1, 2-2) having an energy input (2-1) and an energy output (2-2), the energy input (2-1) of the electronic control unit (2; 2-1, 2-2) coupled to the energy output (1-1) of the energy generation unit , the energy output (2-2) of the electronic control unit (2; 2-1, 2-2) coupled to the energy input (3-1) of the ignition system (3; 3A, 3B). an energy generation unit having an energy output (1-1) and configured to supply operational energy; and an electronic control unit (2; 2-1, 2-2) having an energy input (2-1) and an energy output (2-2), the energy input (2-1) of the electronic control unit (2; 2-1, 2-2) coupled to the energy output (1-1) of the energy generation unit , the energy output (2-2) of the electronic control unit (2; 2-1, 2-2) coupled to the energy input (3-1) of the ignition system (3; 3A, 3B).
Wood-processing plant with a workpiece support for the workpieces to be processed, at least one processing unit arranged between a front support region and a rear support region of the workpiece support and a transport device for displacement of the workpieces resting on the workpiece support relative to the workpiece support and to the processing unit in a first linear axis (X axis), wherein the processing unit contains a carrier which is movable in a second linear axis (Y axis) at right angles to the first linear axis (X axis) and a third linear axis (Z axis) at right angles thereto, on which carrier a processing unit designed as a motor spindle to receive at least one rotationally driven processing tool is arranged to be pivotable about three rotational axes (A axis, B axis, C axis), wherein the processing unit is arranged to be pivotable about a third rotational axis (C axis) spaced from the first rotational axis (A axis) on the free end of an arm which is pivotable on the carrier about a first rotational axis (A axis) and a second rotational axis (B axis) at right angles to the first rotational axis (A axis), characterised in that the arm is arranged on a front carrier part to be rotatable around 360° about the second rotational axis (B axis), which carrier part is arranged to be rotatable on a front end-face side of the carrier about the first rotational axis (A axis) which is perpendicular to the first linear axis (X axis).
A fluid connector , comprising: a connector body , including: a first through-bore ; a first groove arranged circumferentially within the first through-bore; a seal arranged within the first groove; and, a flange ; and, a cartridge operatively arranged to be inserted into the first through-bore, including: a first end ; a second end ; a second through-bore ; a first radially outward facing surface including at least one aperture (28A-B) extending radially inward to the second through-bore; and, a retaining clip operatively arranged on the first radially outward facing surface, the retaining clip including at least one protrusion extending through the at least one aperture and into the second through-bore; wherein the flange is operatively arranged to be crimped over the second end to secure the cartridge in the connector body. a connector body , including: a first through-bore ; a first groove arranged circumferentially within the first through-bore; a seal arranged within the first groove; and, a flange ; and, a first through-bore ; a first groove arranged circumferentially within the first through-bore; a seal arranged within the first groove; and, a flange ; and, a cartridge operatively arranged to be inserted into the first through-bore, including: a first end ; a second end ; a second through-bore ; a first radially outward facing surface including at least one aperture (28A-B) extending radially inward to the second through-bore; and, a retaining clip operatively arranged on the first radially outward facing surface, the retaining clip including at least one protrusion extending through the at least one aperture and into the second through-bore; a first end ; a second end ; a second through-bore ; a first radially outward facing surface including at least one aperture (28A-B) extending radially inward to the second through-bore; and, a retaining clip operatively arranged on the first radially outward facing surface, the retaining clip including at least one protrusion extending through the at least one aperture and into the second through-bore; wherein the flange is operatively arranged to be crimped over the second end to secure the cartridge in the connector body.