mhurhangee/patent-ind-claim-en huggingface dataset:
A rotor blade of an aerodynamic rotor of a wind turbine having a rotor axis of rotation and an outer radius, comprising - a blade root for fastening to a rotor hub, - a blade tip facing away from the blade root, - a blade longitudinal axis extending from the blade root to the blade tip, - a blade front edge facing toward the front in the direction of movement of the rotor blade, - a blade rear edge facing toward the rear in the direction of movement of the rotor blade, and - profile sections which change along the blade longitudinal axis, wherein - each profile section has a profile chord which extends from the blade front edge to the blade rear edge, and each profile chord has an installation angle as an angle in relation to a rotor plane , wherein the installation angle ( from the blade root to the blade tip - first decreases in a blade inner region oriented toward the blade root, - increases again in a blade central region, and - decreases again in a blade tip region oriented toward the blade tip, characterized in that the installation angle increases in the blade central region from 35% to 60% with respect to the outer radius (R). - a blade root for fastening to a rotor hub, - a blade tip facing away from the blade root, - a blade longitudinal axis extending from the blade root to the blade tip, - a blade front edge facing toward the front in the direction of movement of the rotor blade, - a blade rear edge facing toward the rear in the direction of movement of the rotor blade, and - profile sections which change along the blade longitudinal axis, wherein - each profile section has a profile chord which extends from the blade front edge to the blade rear edge, and each profile chord has an installation angle as an angle in relation to a rotor plane , wherein the installation angle ( from the blade root to the blade tip - first decreases in a blade inner region oriented toward the blade root, - increases again in a blade central region, and - decreases again in a blade tip region oriented toward the blade tip, - each profile section has a profile chord which extends from the blade front edge to the blade rear edge, and each profile chord has an installation angle as an angle in relation to a rotor plane , wherein the installation angle ( from the blade root to the blade tip - first decreases in a blade inner region oriented toward the blade root, - increases again in a blade central region, and - decreases again in a blade tip region oriented toward the blade tip, - first decreases in a blade inner region oriented toward the blade root, - increases again in a blade central region, and - decreases again in a blade tip region oriented toward the blade tip,
A method for air quenching a glass hollow body elongated along a main axis, including a wall having an external surface , and an internal surface formed by a bore extending in height along the main axis, this method using air blast nozzles directed towards the surfaces, characterized in that it simultaneously blasts air jets by external nozzles distributed on the external surface , and above the bore in the axis by an internal air jet forming in a transverse plane a crown having a hollow in the center.
A flexible multilayer heating device, of the flexible heating mat type, for carrying out the preforming or consolidation of fibrous preforms of composite parts , the device comprising at least one first support layer , at least one first heating cord arranged on the at least one first support layer and defining a heat-treatment surface adapted to the surface of the composite part to be preformed or consolidated, a first network of wires electrically connected to the at least one first heating cord , characterised in that the device comprises at least one second heating cord arranged on the at least one first support layer and defining at least one heat-blocking belt at the at least one periphery of the heat-treatment surface and a second network of wires electrically connected to the at least one second heating cord .
Method for ascertaining a composition of a substance sample with at least three components by means of a gas chromatograph , comprising the steps: a) quantitatively ascertaining a concentration of a first component of the substance sample and outputting the concentration as a first partial measured value to an artificial intelligence ; characterised in that the method further comprises the steps: b) ascertaining a concentration of the second and third component of the substance sample by means of the artificial intelligence using the first partial measured value and outputting the ascertained concentrations ; c) quantitatively ascertaining a concentration of the second component of the substance sample and outputting the concentration as a second partial measured value to the artificial intelligence ; d) ascertaining the concentration of the third component of the substance sample by means of the artificial intelligence using the first and second partial measured value and outputting the ascertained concentration ; wherein steps a) to d) are performed within a first measurement cycle of the gas chromatograph in which the substance sample is analysed. a) quantitatively ascertaining a concentration of a first component of the substance sample and outputting the concentration as a first partial measured value to an artificial intelligence ; b) ascertaining a concentration of the second and third component of the substance sample by means of the artificial intelligence using the first partial measured value and outputting the ascertained concentrations ; c) quantitatively ascertaining a concentration of the second component of the substance sample and outputting the concentration as a second partial measured value to the artificial intelligence ; d) ascertaining the concentration of the third component of the substance sample by means of the artificial intelligence using the first and second partial measured value and outputting the ascertained concentration ;
A case, comprising: a case body comprising a plurality of case sides, and a cavity enclosed by the case sides, the cavity being configured to accommodate an electronic device; a plurality of vents disposed on at least part of the case sides and configured to ventilate between the case cavity and an external space; and a water retaining mechanism disposed on an inner wall of the cavity of the case body and positioned at the vents; wherein the case body is a cuboid and comprises a front side , a rear side, an top side , a bottom side , a left side and a right side ; the front side comprises a front frame and transparent glass arranged on the front frame ; and the vents are disposed on the front frame of the front side , and the water retaining mechanism is connected with the front frame ; characterized in that , the vents comprises a first group of vents and a second group of vents ; the front frame comprises an upper border and a lower border ; the first group of vents are disposed on the upper border , and the second group of vents are disposed on the lower border ; and the water retaining mechanism comprises: a first baffle arranged at the first group of vents on the upper border and connected with the upper border to form a first water storage portion surrounding the first group of vents ; and a second baffle fixed to the bottom side and arranged opposite to the second group of vents on the lower border . a case body comprising a plurality of case sides, and a cavity enclosed by the case sides, the cavity being configured to accommodate an electronic device; a plurality of vents disposed on at least part of the case sides and configured to ventilate between the case cavity and an external space; and a water retaining mechanism disposed on an inner wall of the cavity of the case body and positioned at the vents; wherein the case body is a cuboid and comprises a front side , a rear side, an top side , a bottom side , a left side and a right side ; the front side comprises a front frame and transparent glass arranged on the front frame ; and the vents are disposed on the front frame of the front side , and the water retaining mechanism is connected with the front frame ; characterized in that , the vents comprises a first group of vents and a second group of vents ; the front frame comprises an upper border and a lower border ; the first group of vents are disposed on the upper border , and the second group of vents are disposed on the lower border ; and the water retaining mechanism comprises: a first baffle arranged at the first group of vents on the upper border and connected with the upper border to form a first water storage portion surrounding the first group of vents ; and a second baffle fixed to the bottom side and arranged opposite to the second group of vents on the lower border . a first baffle arranged at the first group of vents on the upper border and connected with the upper border to form a first water storage portion surrounding the first group of vents ; and a second baffle fixed to the bottom side and arranged opposite to the second group of vents on the lower border .
A fuel injector body for use with a fuel injector, the fuel injector body comprising: a body that includes an at least partially annular configuration defining a longitudinal axis , a circumferential direction , and a radial direction ; a first end that is disposed axially along the longitudinal axis , and a second end that is disposed axially along the longitudinal axis ; a first counterbore and a first cavity that extends from the first end toward the second end ; and an external interface portion including a sealing surface that is disposed axially between the first end and a shoulder ; wherein the first cavity defines a bottom surface and a peripheral surface , the peripheral surface defining a first cavity diameter , and the sealing surface defining a sealing surface diameter , and a ratio of the sealing surface diameter to the first cavity diameter ranges from 0.3 to 4.4; characterised in that the body further includes a radially outer surface that is disposed radially outwardly from the shoulder , the radially outer surface defining a low pressure drain groove , and the body defining a leak passage extending from the bottom surface to the low pressure drain groove . a body that includes an at least partially annular configuration defining a longitudinal axis , a circumferential direction , and a radial direction ; a first end that is disposed axially along the longitudinal axis , and a second end that is disposed axially along the longitudinal axis ; a first counterbore and a first cavity that extends from the first end toward the second end ; and an external interface portion including a sealing surface that is disposed axially between the first end and a shoulder ; a first end that is disposed axially along the longitudinal axis , and a second end that is disposed axially along the longitudinal axis ; a first counterbore and a first cavity that extends from the first end toward the second end ; and an external interface portion including a sealing surface that is disposed axially between the first end and a shoulder ; wherein the first cavity defines a bottom surface and a peripheral surface , the peripheral surface defining a first cavity diameter , and the sealing surface defining a sealing surface diameter , and a ratio of the sealing surface diameter to the first cavity diameter ranges from 0.3 to 4.4; characterised in that the body further includes a radially outer surface that is disposed radially outwardly from the shoulder , the radially outer surface defining a low pressure drain groove , and the body defining a leak passage extending from the bottom surface to the low pressure drain groove .
Method for visualizing a medical image data set, wherein the visualized data set displays a three dimensional arrangement having at least a first object and a second object, comprising the steps: - assigning a first set of parameters (p_1) to the first object ; - assigning a second set of parameters (p_2) to the second object ,; - dividing the medical image data set into a first sub-region and a second sub-region , wherein the image data set is divided into a first sub-region and a second sub-region by a clipping plane and wherein the first object and the second object extend over the first sub-region and the second sub-region; and - providing a visualisation of the three dimensional arrangement by a volume rendering method (VRM), in particular by a ray-casting method or a photorealistic volumetric path tracing, wherein the first set of parameters (p_1) is applied to the first sub-region for visualizing the first object and the second set of parameters (p_2) is applied to the second sub-region for visualizing the second object ), wherein the first and second sets of parameters are adapted to imaging characteristics of the first object and the second object so that the volume rendering method (VRM) causes i) a non-vanishing value for the first object and a mostly vanishing value for the second object in the first sub-region and ii) a non-vanishing value for the second object and a mostly vanishing value for the first object in the second sub-region, wherein a MPR-mode is provided, wherein in the MPR-mode a multi-planar reformation is visualized as a two dimensional cross section of the first and/or second object on the clipping plane, wherein the cross section corresponds to the current position of the clipping plane in the first and/or second object. - assigning a first set of parameters (p_1) to the first object ; - assigning a second set of parameters (p_2) to the second object ,; - dividing the medical image data set into a first sub-region and a second sub-region , wherein the image data set is divided into a first sub-region and a second sub-region by a clipping plane and wherein the first object and the second object extend over the first sub-region and the second sub-region; and - providing a visualisation of the three dimensional arrangement by a volume rendering method (VRM), in particular by a ray-casting method or a photorealistic volumetric path tracing, a mostly vanishing value for the second object in the first sub-region and ii) a non-vanishing value for the second object and a mostly vanishing value for the first object in the second sub-region, wherein a MPR-mode is provided, wherein in the MPR-mode a multi-planar reformation is visualized as a two dimensional cross section of the first and/or second object on the clipping plane, wherein the cross section corresponds to the current position of the clipping plane in the first and/or second object.
A dielectric material for a capacitor comprising a polymer and particles, and electrons having a debroglie wavelength, said polymer having a crystalline morphology, said particles having a relative permittivity higher than that of the polymer and the diameter of said particles being in the nanometre range, characterised in that said particles are homogenously dispersed within the polymer, and the diameter of each of the particles is below the de Broglie wavelength of the electrons in the polymer corresponding to a field strength of 1.00×10 8 V/m at a temperature of 20 degrees Celsius.
A sliding member, which is formed of a sintered compact and has a sliding surface that slides with another member, the sliding member comprising: a base layer, which mainly contains an Fe-based structure and further contains 1.0 wt% to 5.0 wt% of Cu, an element having a melting point lower than a melting point of Cu, and C, the element with a melting point lower than a melting point of Cu being any of Sn, Zn and P; and a sliding layer, which is sintered together with the base layer in a state of being held in contact with the base layer and has the sliding surface, the sliding layer mainly containing an Fe-based structure that contains an alloy element and a Cu-based structure, and further containing C, the sliding layer having a content of Cu larger than a content of Cu in the base layer, wherein all the alloy element contained in the sliding layer is alloyed with the Fe-based structure, characterized in that a pearlite phase is formed in the Fe-based structure of the base layer, wherein at least a part of the Fe-based structure contained in the sliding layer contains a martensite phase and a bainite phase, wherein the Cu-based structure of the sliding layer contains copper powder having a particle diameter of less than 45 μm in a ratio of from 70% to 100% with respect to the entire copper powder, wherein the sliding layer contains Cu in a content of from 10 wt% to 30 wt%, and wherein a radial thickness of the sliding layer is 1% to 20% of a radial thickness of the sliding member. a base layer, which mainly contains an Fe-based structure and further contains 1.0 wt% to 5.0 wt% of Cu, an element having a melting point lower than a melting point of Cu, and C, the element with a melting point lower than a melting point of Cu being any of Sn, Zn and P; and a sliding layer, which is sintered together with the base layer in a state of being held in contact with the base layer and has the sliding surface, the sliding layer mainly containing an Fe-based structure that contains an alloy element and a Cu-based structure, and further containing C, the sliding layer having a content of Cu larger than a content of Cu in the base layer, wherein all the alloy element contained in the sliding layer is alloyed with the Fe-based structure, characterized in that a pearlite phase is formed in the Fe-based structure of the base layer, wherein at least a part of the Fe-based structure contained in the sliding layer contains a martensite phase and a bainite phase, wherein the Cu-based structure of the sliding layer contains copper powder having a particle diameter of less than 45 μm in a ratio of from 70% to 100% with respect to the entire copper powder, wherein the sliding layer contains Cu in a content of from 10 wt% to 30 wt%, and wherein a radial thickness of the sliding layer is 1% to 20% of a radial thickness of the sliding member.
Follicle-stimulating hormone (FSH) ligand which potentiates the bioactivity of FSH and of chorionic gonadotropin (CG), characterized in that said ligand is a monoclonal antibody or a fragment thereof and in that : the heavy chain variable domain contains the following CDRs: - VH-CDR1, defined by the sequence GFTFSDFG (SEQ ID NO: 5); - VH-CDR2, defined by the sequence ISSGSSTR (SEQ ID NO: 6); - VH-CDR3, defined by the sequence ARSYDGYHVPSFAY (SEQ ID NO: 7); and the light chain variable domain contains the following CDRs: - VL-CDR1, defined by the sequence QNIVHSNGNTY (SEQ ID NO: 8); - VL-CDR2, defined by the sequence RVS; - VL-CDR3, defined by the sequence FQGSHVPLT (SEQ ID NO: 9). the heavy chain variable domain contains the following CDRs: - VH-CDR1, defined by the sequence GFTFSDFG (SEQ ID NO: 5); - VH-CDR2, defined by the sequence ISSGSSTR (SEQ ID NO: 6); - VH-CDR3, defined by the sequence ARSYDGYHVPSFAY (SEQ ID NO: 7); and - VH-CDR1, defined by the sequence GFTFSDFG (SEQ ID NO: 5); - VH-CDR2, defined by the sequence ISSGSSTR (SEQ ID NO: 6); - VH-CDR3, defined by the sequence ARSYDGYHVPSFAY (SEQ ID NO: 7); and the light chain variable domain contains the following CDRs: - VL-CDR1, defined by the sequence QNIVHSNGNTY (SEQ ID NO: 8); - VL-CDR2, defined by the sequence RVS; - VL-CDR3, defined by the sequence FQGSHVPLT (SEQ ID NO: 9). - VL-CDR1, defined by the sequence QNIVHSNGNTY (SEQ ID NO: 8); - VL-CDR2, defined by the sequence RVS; - VL-CDR3, defined by the sequence FQGSHVPLT (SEQ ID NO: 9).
A radome for an antenna comprising a reflector dish, said radome comprising: a composite of an isotropic outer layer and a structural layer of foam material ; and a retaining element configured to protect a periphery of the structural layer and to couple said periphery of the structural layer to a retaining flange of the reflector dish of the antenna; wherein the retaining element is provided with an s-shaped cross section forming a radially inwardly facing choke groove and a radially outwardly facing choke groove, wherein the composite is dimensioned for enclosing an open end of the antenna, and wherein the isotropic outer layer extends around an outer diameter of the structural layer. a composite of an isotropic outer layer and a structural layer of foam material ; and a retaining element configured to protect a periphery of the structural layer and to couple said periphery of the structural layer to a retaining flange of the reflector dish of the antenna; wherein the retaining element is provided with an s-shaped cross section forming a radially inwardly facing choke groove and a radially outwardly facing choke groove, wherein the composite is dimensioned for enclosing an open end of the antenna, and wherein the isotropic outer layer extends around an outer diameter of the structural layer.
Method for producing a connecting element , wherein the connecting element serves for selectively producing electrical connections between a number of input terminals and a number of output terminals , wherein the method comprises the following steps: - providing a leadframe , wherein at least one output element is arranged in the leadframe , said output element having a number of electrically conductive webs , and - selectively stamping out a number of webs from the output element with the result that a number of electrical connections between the input terminals and the output terminals remain, characterized in that the method has, before or after the stamping-out step, a step of encasing the webs or at least some of the webs and preferably also components (C1, C2, R1, R2, D1) with a molded body . - providing a leadframe , wherein at least one output element is arranged in the leadframe , said output element having a number of electrically conductive webs , and - selectively stamping out a number of webs from the output element with the result that a number of electrical connections between the input terminals and the output terminals remain, characterized in that the method has, before or after the stamping-out step, a step of encasing the webs or at least some of the webs and preferably also components (C1, C2, R1, R2, D1) with a molded body .
A shaving razor cartridge comprising: a housing having a primary guard at a front of the housing, a secondary cap at a rear of the housing and at least one spring member positioned between the primary guard and the secondary cap; a bridge member positioned between the primary guard and the secondary cap, the bridge member having a primary cap surface and a secondary guard surface ; a first blade having a cutting edge , the first blade mounted to at least one of the spring members between the primary guard and the primary cap surface; a second blade having a cutting edge , the second blade mounted to at least one of the spring members between the secondary guard surface and the secondary cap, wherein the bridge member is mounted on a plurality of the spring members, characterized in that an interblade span (S1) from the cutting edge of the first blade to the cutting edge of the second blade is greater than 3.0mm and the bridge member has a width (W2) that is greater than 45% of the interblade span (S1). a housing having a primary guard at a front of the housing, a secondary cap at a rear of the housing and at least one spring member positioned between the primary guard and the secondary cap; a bridge member positioned between the primary guard and the secondary cap, the bridge member having a primary cap surface and a secondary guard surface ; a first blade having a cutting edge , the first blade mounted to at least one of the spring members between the primary guard and the primary cap surface; a second blade having a cutting edge , the second blade mounted to at least one of the spring members between the secondary guard surface and the secondary cap, wherein the bridge member is mounted on a plurality of the spring members, characterized in that an interblade span (S1) from the cutting edge of the first blade to the cutting edge of the second blade is greater than 3.0mm and the bridge member has a width (W2) that is greater than 45% of the interblade span (S1).