mhurhangee/ep-ind-claims huggingface dataset:
Household appliance operating device having a stationary element (16, 18) for arrangement on a household appliance unit, having an operating element to be handled by an operator, having a pivot axis about which the operating element can be pivoted with the movement from the rest position into the operating position, wherein the operating element can be moved out of a rest position into an operating position relative to the stationary element (16, 18), characterised by an axis of rotation which differs from the pivot axis, about which the operating element held in the operating position can be rotated, and by a module which can be rotated about the axis of rotation, said module having a first stationary element, the operating element and a damping means for damping the movement of the operating element from its rest position into its operating position.
A method, in a mobility management node, for regulating small data communications in a network, the method comprising: identifying a device being configured to use a predetermined type of small data communications; and restricting at least one communication functionality of the device according to a restriction profile associated with the predetermined type of small data communications. identifying a device being configured to use a predetermined type of small data communications; and restricting at least one communication functionality of the device according to a restriction profile associated with the predetermined type of small data communications.
A light emitting device comprising: a support structure; a light emitting diode die mounted on the support structure, the LED die having a top surface and side surfaces, the LED die comprising LED semiconductor layers and a transparent substrate, the substrate comprising the top surface of the LED die so that the LED die is a flip-chip, wherein the side surfaces comprise a combination of sides of the LED semiconductor layers and sides of the substrate, the substrate being thicker than the LED semiconductor layers, wherein light emitted from the side surfaces is at least 30% of all light emitted by the LED; a phosphor layer covering the top surface and side surfaces; a reflector surrounding the LED die, the reflector having curved surfaces surrounding the LED die, wherein the curved surfaces extend from a generally rectangular opening for the LED die and reflect the light from the side surfaces of the LED die to form a generally rectangular beam; and a generally rectangular lens affixed to walls of the reflector, the lens having a generally rectangular convex surface extending toward the LED die and having a flat surface facing away from the LED die, wherein a beam of light emitted from the lens has a generally rectangular shape. a support structure; a light emitting diode die mounted on the support structure, the LED die having a top surface and side surfaces, the LED die comprising LED semiconductor layers and a transparent substrate, the substrate comprising the top surface of the LED die so that the LED die is a flip-chip, wherein the side surfaces comprise a combination of sides of the LED semiconductor layers and sides of the substrate, the substrate being thicker than the LED semiconductor layers, wherein light emitted from the side surfaces is at least 30% of all light emitted by the LED; a phosphor layer covering the top surface and side surfaces; a reflector surrounding the LED die, the reflector having curved surfaces surrounding the LED die, wherein the curved surfaces extend from a generally rectangular opening for the LED die and reflect the light from the side surfaces of the LED die to form a generally rectangular beam; and a generally rectangular lens affixed to walls of the reflector, the lens having a generally rectangular convex surface extending toward the LED die and having a flat surface facing away from the LED die, wherein a beam of light emitted from the lens has a generally rectangular shape.
A support assembly comprising: a support rotatably connected to a frame (290, 920); a repetition lever hinge mounted to the support; and a repetition lever supported by the repetition lever hinge and rotatably disposed with respect to the support, wherein the repetition lever has a contact surface which contacts a hammer shank roller provided to a hammer shank for rotating a hammer, the repetition lever hinge is mounted to the support in an orientation direction that crosses with a line, the line being a tangent to the hammer shank roller at the contact point between the hammer shank roller and the contact surface, and the support assembly further comprises an elastic body which provides a rotational force to the repetition lever via a contact portion of the repetition lever, characterized in that the repetition lever hinge is flexible and is integrally formed with the support and/or the repetition lever. a support rotatably connected to a frame (290, 920); a repetition lever hinge mounted to the support; and a repetition lever supported by the repetition lever hinge and rotatably disposed with respect to the support, wherein the repetition lever has a contact surface which contacts a hammer shank roller provided to a hammer shank for rotating a hammer, the repetition lever hinge is mounted to the support in an orientation direction that crosses with a line, the line being a tangent to the hammer shank roller at the contact point between the hammer shank roller and the contact surface, and the support assembly further comprises an elastic body which provides a rotational force to the repetition lever via a contact portion of the repetition lever, characterized in that the repetition lever hinge is flexible and is integrally formed with the support and/or the repetition lever.
A method of manufacturing a curable composition for imprints, which includes a method of manufacturing a polymerizable monomer for imprint, wherein the method of manufacturing the polymerizable monomer for imprint includes removing a polymer impurity containing at least one species of the polymerizable monomer as a repeating unit by: i. mixing a solvent with the polymerizable monomer and the polymer impurity, and ii. allowing the polymer impurity to deposit, wherein the solvent is capable of dissolving at least one species of the polymerizable monomer, and the solubility of the polymer impurity in the solvent is typically 5% by mass or below, wherein an imprint means a pattern transfer in a size of from 1 nm to 10 mm, wherein the method further comprises the step of adding a polymerization initiator, and wherein the curable composition for imprints contains 3% by mass or less solvent. i. mixing a solvent with the polymerizable monomer and the polymer impurity, and ii. allowing the polymer impurity to deposit,
A method for laser pre-cutting a layered material, wherein the layered material comprises at least one tensile stress layer, at least one compression stress layer (CSL1, CSL2), and at least one interface region (IR1, IR2) between the at least one tensile stress layer and the at least one compression stress layer (CSL1, CSL2) and the layered material is transparent to allow propagation of the laser beam through the layered material, the method comprising: characterized by setting an optical beam path and a laser characteristic of the laser beam such that an interaction of the laser beam with the layered material generates an elongate single laser pulse damage region in the layered material, and for each of a series of pre-cut positions (X N-1, X N, X N+1) of the layered material, pre-cutting the layered material by positioning the layered material and the laser beam with respect to each other and irradiating the laser beam such that the respective elongate single laser pulse damage regions extend across the at least one interface region (IR1, IR2), further in that the layered material is pre-cut with a pulsed Bessel-like laser beam. characterized by setting an optical beam path and a laser characteristic of the laser beam such that an interaction of the laser beam with the layered material generates an elongate single laser pulse damage region in the layered material, and for each of a series of pre-cut positions (X N-1, X N, X N+1) of the layered material, pre-cutting the layered material by positioning the layered material and the laser beam with respect to each other and irradiating the laser beam such that the respective elongate single laser pulse damage regions extend across the at least one interface region (IR1, IR2), further in that the layered material is pre-cut with a pulsed Bessel-like laser beam.
A polynucleotide selected from the group consisting of: (a) a polynucleotide comprising a polynucleotide consisting of the nucleotide sequence of SEQ ID NO:1; (b) a polynucleotide comprising a polynucleotide encoding a protein consisting of the amino acid sequence of SEQ ID NO:2; and (c) a polynucleotide comprising a polynucleotide encoding a protein having an amino acid sequence having 80% or higher identity with the amino acid sequence of SEQ ID NO:2, and said protein having an activity of imparting flocculation property to yeast. (a) a polynucleotide comprising a polynucleotide consisting of the nucleotide sequence of SEQ ID NO:1; (b) a polynucleotide comprising a polynucleotide encoding a protein consisting of the amino acid sequence of SEQ ID NO:2; and (c) a polynucleotide comprising a polynucleotide encoding a protein having an amino acid sequence having 80% or higher identity with the amino acid sequence of SEQ ID NO:2, and said protein having an activity of imparting flocculation property to yeast.
Ultrasonic transducer (1, 21) comprising a coupling element (3, 23), said coupling element (3, 23) having a first recess (5, 25), wherein a piezoelectric element (2, 22) is arranged in the first recess (5, 25), wherein the first recess (5, 25) has a terminal base area (14, 34) in which an ultrasonic signal generated by the piezoelectric element (2, 22) can be introduced into the coupling element (3, 23), and wherein the coupling element has one or more limit stops (7, 27, 8, 28) within the recess (5, 25), said stops each having at least a limit stop surface (7.1, 27.1, 8.1, 28.1), which extends along a plane, wherein said plane is parallel to the base area (14, 34) of the first recess (5, 25) and defines a space (6,36) between this plane and the base area (14, 34), said space serving to receive material for an acoustic adaptation layer, wherein a support disc is arranged in the first recess, the piezoelectric element being arranged on the top side of the disc facing away from the coupling element; wherein the support disc and the base area (14, 34) delimit a space in which an adaptation layer is arranged, wherein the support disc is provided to reduce thermal stress on the piezoelectric element, characterized in that the at least one limit stop is formed as at least a bar, said bar projecting into the first recess at the edge, wherein the at least one bar (7, 27) has a back cut.
A sensor-carrier cap for a bearing of a wheel hub, the cap being made of plastic material and comprising: - a bottom wall arranged transversely to a central axis and providing a seat for accommodating a rotational speed detecting sensor, - a cylindrical mounting wall extending axially from one side of the bottom wall around said axis; the cap being characterized in that it comprises snap locking means (37b, 39) projecting in a radially outer direction from the cylindrical wall, for locking the sensor-carrier cap on a tubular appendage of a wheel hub bearing. - a bottom wall arranged transversely to a central axis and providing a seat for accommodating a rotational speed detecting sensor, - a cylindrical mounting wall extending axially from one side of the bottom wall around said axis; the cap being characterized in that it comprises snap locking means (37b, 39) projecting in a radially outer direction from the cylindrical wall, for locking the sensor-carrier cap on a tubular appendage of a wheel hub bearing.
A bone implant kit comprising: a bone-supporting component (600, 640) formed of a fiber-reinforced polymer composite, in the form of a bone plate with a plurality of locations designated for attaching a fixation component therethrough; one or more fixation components (100, 300, 160, 170, 250, 560, 440) for the bone-supporting component; and a radiolucent drill guide defining an array of holes, said drill guide configured to attach to said bone plate component to facilitate drilling for insertion of the fixation components; characterized in that said bone-supporting component is in the form of a radiolucent bone plate and with said drill guide, when attached on said bone-supporting component, are radiolucent to allow imaging of the bone through using x-rays. a bone-supporting component (600, 640) formed of a fiber-reinforced polymer composite, in the form of a bone plate with a plurality of locations designated for attaching a fixation component therethrough; one or more fixation components (100, 300, 160, 170, 250, 560, 440) for the bone-supporting component; and a radiolucent drill guide defining an array of holes, said drill guide configured to attach to said bone plate component to facilitate drilling for insertion of the fixation components; characterized in that said bone-supporting component is in the form of a radiolucent bone plate and with said drill guide, when attached on said bone-supporting component, are radiolucent to allow imaging of the bone through using x-rays.
A method comprising: in a first virtual network, subscribing to virtual network services provided by a second virtual network; sending to the second virtual network a first message comprising information configured to start a virtual switch in the second virtual network that switches network traffic for one or more virtual machines in the second virtual network that are configured to extend services provided by the first virtual network into the second virtual network; sending to the second virtual network a second message comprising information configured to start a virtual service node in the second virtual network to provide network traffic services for the one or more virtual machines; and assigning to the second virtual network an identifier configured to identify resources in the second virtual network that are associated with the first virtual network, wherein the identifier is configured to indicate a location of the resources as being in the second virtual network. in a first virtual network, subscribing to virtual network services provided by a second virtual network; sending to the second virtual network a first message comprising information configured to start a virtual switch in the second virtual network that switches network traffic for one or more virtual machines in the second virtual network that are configured to extend services provided by the first virtual network into the second virtual network; sending to the second virtual network a second message comprising information configured to start a virtual service node in the second virtual network to provide network traffic services for the one or more virtual machines; and assigning to the second virtual network an identifier configured to identify resources in the second virtual network that are associated with the first virtual network, wherein the identifier is configured to indicate a location of the resources as being in the second virtual network.
A thermoforming machine adapted for the use in the process of laminating a functional multi-layer film on an optical article such as an ophthalmic lens by use of increased pressure and temperature, the thermoforming machine comprising a thermoforming chamber having at least one heated air inlet through which heated air flows into said thermoforming chamber at a controlled pressure, wherein said air inlet cooperates with a heated air flow distribution regulator located in said thermoforming chamber and through which said heated air flows out of said thermoforming chamber at a predetermined temperature, said regulator comprising a heated air flow regulating mask receiving heated air flow, having a plurality of flow restricting elements providing different air flow restrictions.
A float shoe for a downhole tubular, the shoe comprising: a housing comprising a first material, the housing defining a bore therethrough from a first end of the housing to a second end of the housing, the first end attached to the tubular; a nose comprising a second material, the nose extending from the second end of the housing and defining an internal cavity, the nose having a first passage communicating a distal outlet of the nose toward the bore of the housing; a support comprising cement, the support disposed in the bore of the housing and disposed in the internal cavity of the nose; and a valve supported by the support in the bore of the housing, the valve disposed in communication between the first end of the housing and the first passage of the nose, the bore having a complementary feature disposed on the bore, the nose comprising a shell having a third end and a fourth end, the third end being an open proximal end having an outer rim with a snap-in feature disposed on the outer rim, the outer rim disposed inside the bore of the housing at the second end, the snap-in feature configured to engage with the complementary feature disposed on the bore of the housing and complementary to the snap-in feature such that the shell extends from the second end of the housing, the support holding the snap-in feature of the outer rim engaged with the complementary feature of the housing. a housing comprising a first material, the housing defining a bore therethrough from a first end of the housing to a second end of the housing, the first end attached to the tubular; a nose comprising a second material, the nose extending from the second end of the housing and defining an internal cavity, the nose having a first passage communicating a distal outlet of the nose toward the bore of the housing; a support comprising cement, the support disposed in the bore of the housing and disposed in the internal cavity of the nose; and a valve supported by the support in the bore of the housing, the valve disposed in communication between the first end of the housing and the first passage of the nose, the bore having a complementary feature disposed on the bore, the nose comprising a shell having a third end and a fourth end, the third end being an open proximal end having an outer rim with a snap-in feature disposed on the outer rim, the outer rim disposed inside the bore of the housing at the second end, the snap-in feature configured to engage with the complementary feature disposed on the bore of the housing and complementary to the snap-in feature such that the shell extends from the second end of the housing, the support holding the snap-in feature of the outer rim engaged with the complementary feature of the housing.
A ground tackle for a boat, said boat comprising a body delimited by a hull, said ground tackle comprising: - a first end, for being connected to said body, and - a second end, for being connected to an anchor, the ground tackle being characterised in that it comprises a plurality of localisation beacons, disposed end to end between the first end and the second end at regular intervals, each localisation beacon being able to emit a magnetic field or acoustic waves toward the boat in order to enable the boat to locate said ground tackle with respect to the hull of the boat. - a first end, for being connected to said body, and - a second end, for being connected to an anchor, the ground tackle being characterised in that it comprises a plurality of localisation beacons, disposed end to end between the first end and the second end at regular intervals, each localisation beacon being able to emit a magnetic field or acoustic waves toward the boat in order to enable the boat to locate said ground tackle with respect to the hull of the boat.
A rotor blade pitching arrangement for a two-part rotor blade of a wind turbine, comprising - a fluid bearing realised to connect a tip blade part of the two-part wind turbine rotor blade to a main blade part of the two-part wind turbine rotor blade such that the tip blade part is rotatable relative to the main blade part about an axis of rotation; and - a pitch angle adjusting means for obtaining a specific pitching angle of the tip blade part to increase and decrease a rotational speed of a rotor of the wind turbine. - a fluid bearing realised to connect a tip blade part of the two-part wind turbine rotor blade to a main blade part of the two-part wind turbine rotor blade such that the tip blade part is rotatable relative to the main blade part about an axis of rotation; and - a pitch angle adjusting means for obtaining a specific pitching angle of the tip blade part to increase and decrease a rotational speed of a rotor of the wind turbine.
Pocket spring core which is rectangular in outline with unequal side lengths, with a plurality of spring strings which define the longitudinal extent, lie next to one another and are connected to one another, form a lying surface and of which each has a multiplicity of springs which are arranged in a row one behind another and are each enclosed by a pocket which is preferably composed of textile material, wherein at least one individual reinforcing strip which is substantially resistant to buckling during operation is fastened to at least one spring string between the end rings which in each case bound the springs, characterized in that two reinforcing strips arranged at a distance from each other are provided, the reinforcing strips being positioned between two adjacent spring strings and being connected to each other only via spring strings.
Pressure sensor, comprising: an operating circuit; and a pressure measuring cell with a counter-body; a measuring diaphragm which is arranged on the counter-body and can be deformed by a pressure to be measured; and a capacitive converter, which has at least one membrane electrode arranged on the measuring diaphragm and at least one counter-body electrode (8, 9) arranged on the counter-body, wherein the capacity between the membrane electrode and the counter-body electrode (8, 9) depends on a pressure-dependent deformation of the measuring membrane, wherein at least the membrane electrode has a temperature-dependent impedance; wherein the operating circuit is designed to measure at least a capacity between the at least one counter-body electrode and the at least one membrane electrode, characterized in that the operating circuit is designed to provide a pressure measured value as a function of the at least one capacity, and to determine the ohmic part of the impedance of the membrane electrode, and wherein the operating circuit is designed to perform a temperature compensation or temperature gradient compensation, depending on the impedance of the membrane electrode, in order to provide a compensated pressure measured value. an operating circuit; and a pressure measuring cell with a counter-body; a measuring diaphragm which is arranged on the counter-body and can be deformed by a pressure to be measured; and a capacitive converter, which has at least one membrane electrode arranged on the measuring diaphragm and at least one counter-body electrode (8, 9) arranged on the counter-body, wherein the capacity between the membrane electrode and the counter-body electrode (8, 9) depends on a pressure-dependent deformation of the measuring membrane, wherein at least the membrane electrode has a temperature-dependent impedance; wherein the operating circuit is designed to measure at least a capacity between the at least one counter-body electrode and the at least one membrane electrode, characterized in that the operating circuit is designed to provide a pressure measured value as a function of the at least one capacity, and to determine the ohmic part of the impedance of the membrane electrode, and wherein the operating circuit is designed to perform a temperature compensation or temperature gradient compensation, depending on the impedance of the membrane electrode, in order to provide a compensated pressure measured value.