mhurhangee/ep-ind-claims huggingface dataset:
A recording apparatus, comprising: conveying means (50, 51) for conveying a recording medium; ink ejection means having a plurality of nozzles; and image recording means for ejecting ink from the nozzles of said ink ejection means based upon image data representing an image, to record the image represented by the image data on the recording medium conveyed by said conveying means (50, 51), while scanning said ink ejection means in a scanning direction orthogonal to a conveying direction of the recording medium; characterized by further comprising: inclination detecting means configured to detect an angle of inclination of a portion of an edge of the recording medium conveyed by said conveying means (50, 51) by measuring the positions of two points on the edge at respective ends of the portion, said edge being along the conveying direction, to the conveying direction; and ejecting position control means for controlling an ink-ejection starting position and an ink-ejection ending position of each of the nozzles in the scanning direction at the time of image recording on the recording medium by said image recording means in a strip shape region corresponding to said portion of said edge, according to the angle of inclination of said portion of said edge detected by said inclination detecting means. conveying means (50, 51) for conveying a recording medium; ink ejection means having a plurality of nozzles; and image recording means for ejecting ink from the nozzles of said ink ejection means based upon image data representing an image, to record the image represented by the image data on the recording medium conveyed by said conveying means (50, 51), while scanning said ink ejection means in a scanning direction orthogonal to a conveying direction of the recording medium; inclination detecting means configured to detect an angle of inclination of a portion of an edge of the recording medium conveyed by said conveying means (50, 51) by measuring the positions of two points on the edge at respective ends of the portion, said edge being along the conveying direction, to the conveying direction; and ejecting position control means for controlling an ink-ejection starting position and an ink-ejection ending position of each of the nozzles in the scanning direction at the time of image recording on the recording medium by said image recording means in a strip shape region corresponding to said portion of said edge, according to the angle of inclination of said portion of said edge detected by said inclination detecting means.
Device for receiving bulk material, said device having a bulk material receiving means and having a discharge apparatus, wherein the bulk material receiving means has a bottom with a discharge opening and has an outer surface wall and wherein the discharge apparatus includes at least one clearing member which is mounted on a bearing column so as to be rotatable about a center axis which passes through the discharge opening and one pressure cone which is arranged above the bottom and forms a discharge gap with the outer surface wall and/or the bottom, wherein the discharge apparatus additionally includes a drive for the clearing member, by way of which the clearing member is able to be rotated about the center axis in an operating direction of rotation and wherein at least one clearing tine is fastened on the at least one clearing member, said clearing tine dipping into the bulk material received in the bulk material receiving means when the clearing member moves in a rotating manner about the center axis in the operating direction of rotation and pushing the bulk material toward the center axis, wherein the bulk material falls from the bottom through the discharge opening, characterized in that the clearing member is arranged in the interior of the pressure cone, such that the pressure cone engages completely over the clearing member.
A hydraulic control device for a hybrid transmission, comprising an oil pump and a main oil line connected therewith, whereby said mail oil line is connected to a cooling and lubrication oil line, a clutch control oil line and a solenoid control oil line respectively, whereby the main oil line is connected to the cooling and lubrication oil line through an oil orifice on an unloading valve, the cooling and lubrication oil line at the same time is connected to a valve spool control oil port of the unloading valve, while the oil outlet of the unloading valve is connected to an oil inlet of an overflow valve and the clutch control oil line respectively, the oil outlet of the overflow valve is connected to the cooling and lubrication oil line, a cooler is provided on the cooling and lubrication oil line, the clutch control oil line is connected to the oil inlets (33, 40) of first and second proportional pressure reducing valves (30, 37) respectively, a pressure reducing valve is provided between the solenoid control oil line and the main oil line, the solenoid control oil line is connected respectively to the valve spool control oil ports (35, 42) of the first and second proportional pressure reducing valves through an oil orifice, and the solenoid control oil line is also connected to a switch solenoid and a parking lock hydraulic oil cylinder through the oil orifice respectively.
A multi-head bolt (10, 510), comprising a bolt shaft (12, 512) defining a longitudinal axis (14, 514) of the multi-head bolt; a multi-head (16, 516) disposed at a first end of the bolt shaft (12, 512), the multi-head comprising at least three pawls, each pawl having a fixed radial orientation relative to the bolt shaft (12, 512) and having a primary plane being aligned with the longitudinal axis (14, 514) of the bolt shaft (12, 512) and having a support surface (20, 520) and having an angled side (18b, 518b) that intersects the primary plane and wherein a radial distance of the angled side (18b, 518b) relative to bolt shaft (12, 512) linearly decreases as measured from the support surface (20, 520) to the first end of the bolt (10, 510), characterized in that the bolt shaft (12, 512) defines at least one of a cone shape or a truncated cone shape at the first end of the bolt shaft (12, 512), wherein at least a portion of the angled side (18b, 518b) is coplanar with the cone shape or the truncated cone shape of the first end of the bolt shaft (12, 512) and forms a continuous, uninterrupted surface with the cone shape or the truncated cone shape. a bolt shaft (12, 512) defining a longitudinal axis (14, 514) of the multi-head bolt; a multi-head (16, 516) disposed at a first end of the bolt shaft (12, 512), the multi-head comprising at least three pawls, each pawl having a fixed radial orientation relative to the bolt shaft (12, 512) and having a primary plane being aligned with the longitudinal axis (14, 514) of the bolt shaft (12, 512) and having a support surface (20, 520) and having an angled side (18b, 518b) that intersects the primary plane and wherein a radial distance of the angled side (18b, 518b) relative to bolt shaft (12, 512) linearly decreases as measured from the support surface (20, 520) to the first end of the bolt (10, 510), characterized in that the bolt shaft (12, 512) defines at least one of a cone shape or a truncated cone shape at the first end of the bolt shaft (12, 512), wherein at least a portion of the angled side (18b, 518b) is coplanar with the cone shape or the truncated cone shape of the first end of the bolt shaft (12, 512) and forms a continuous, uninterrupted surface with the cone shape or the truncated cone shape.
An isolated antibody or antigen-binding fragment thereof that specifically binds human interleukin-25 (IL-25), wherein the antibody or antigen-binding fragment thereof comprises: a heavy chain variable region (HCVR) having the amino acid sequence of SEQ ID NO: 114; and a light chain variable region (LCVR) having the amino acid sequence of SEQ ID NO: 122. a heavy chain variable region (HCVR) having the amino acid sequence of SEQ ID NO: 114; and a light chain variable region (LCVR) having the amino acid sequence of SEQ ID NO: 122.
A leadless cardiac pacemaker configured to sense cardiac activity and to pace a patient's heart, the LCP disposable within a ventricle of the patient's heart, the LCP comprising: a housing; a first electrode secured relative to the housing; a second electrode secured relative to the housing, the second electrode spaced from the first electrode; a controller disposed within the housing and operably coupled to the first electrode and the second electrode such that the controller is capable of receiving, via the first electrode and the second electrode, electrical cardiac signals of the heart; a pressure sensor disposed relative to the housing and operably coupled to the controller, the controller configured to receive signals from the pressure sensor; an accelerometer disposed relative to the housing and operably coupled to the controller, the controller configured to receive signals from the accelerometer; the controller configured to determine an atrial contraction timing fiducial based at least in part upon a signal received from the pressure sensor and one or more of a signal received from the accelerometer representing a heart sound and/or endocardial acceleration, and an electrical cardiac signal received via the first electrode and the second electrode; and the controller configured to generate and deliver a ventricle pacing pulse using the atrial contraction timing fiducial. a housing; a first electrode secured relative to the housing; a second electrode secured relative to the housing, the second electrode spaced from the first electrode; a controller disposed within the housing and operably coupled to the first electrode and the second electrode such that the controller is capable of receiving, via the first electrode and the second electrode, electrical cardiac signals of the heart; a pressure sensor disposed relative to the housing and operably coupled to the controller, the controller configured to receive signals from the pressure sensor; an accelerometer disposed relative to the housing and operably coupled to the controller, the controller configured to receive signals from the accelerometer; the controller configured to determine an atrial contraction timing fiducial based at least in part upon a signal received from the pressure sensor and one or more of a signal received from the accelerometer representing a heart sound and/or endocardial acceleration, and an electrical cardiac signal received via the first electrode and the second electrode; and the controller configured to generate and deliver a ventricle pacing pulse using the atrial contraction timing fiducial.
Use of at least one mineral filler in the form of particles, functionalized by at least one group comprising a thiocarbonyl function -C(=S)- provided that, if said group comprises at least another sulfur atom, this or these is/are in the form of -SH, -S(=O) 2 -, -S(=O)-, -S((=O) 2)O - and/or -S((=O) 2)OH, said group being bound or grafted, directly or indirectly, to said mineral filler via at least one covalent bond, for chemically stabilizing of a polymer matrix in a membrane and/or for increasing the durability thereof in a membrane.
A polymer composition comprising a base resin which comprises at least three polymer components: (a) a very high molecular weight polyethylene component as fraction A1; (b) a low molecular weight polyethylene component as fraction A2 having a weight average molecular weight lower than a weight average molecular weight of the very high molecular weight polyethylene component; and (c) a high molecular weight polyethylene component as fraction A3 having a weight average molecular weight higher than the weight average molecular weight of the low molecular weight polyethylene component but lower than the weight average molecular weight of the very high molecular weight component, wherein an amount of the very high molecular weight polyethylene component in the base resin is 0.5 to 8 wt%, and a viscosity average molecular weight (M v) of the very high molecular weight polyethylene component is greater than 1100 kg/mol; and the composition has FRR 21/5 of equal to or greater than 38, a melt flow rate MFR 21 of equal to or greater than 6.5 g/10 min and a viscosity at a shear stress of 747 Pa of 450 to 3000 kPas. (a) a very high molecular weight polyethylene component as fraction A1; (b) a low molecular weight polyethylene component as fraction A2 having a weight average molecular weight lower than a weight average molecular weight of the very high molecular weight polyethylene component; and (c) a high molecular weight polyethylene component as fraction A3 having a weight average molecular weight higher than the weight average molecular weight of the low molecular weight polyethylene component but lower than the weight average molecular weight of the very high molecular weight component, an amount of the very high molecular weight polyethylene component in the base resin is 0.5 to 8 wt%, and a viscosity average molecular weight (M v) of the very high molecular weight polyethylene component is greater than 1100 kg/mol; and the composition has FRR 21/5 of equal to or greater than 38, a melt flow rate MFR 21 of equal to or greater than 6.5 g/10 min and a viscosity at a shear stress of 747 Pa of 450 to 3000 kPas.
A circuit package, comprising: a substrate; a dielectric layer on a surface of the substrate; a plurality of metal layers (M1-M4) within the dielectric layer, wherein the plurality of metal layers equals at least four metal layers; and an ultra-thick-metal, UTM, conductor on a surface of the dielectric layer; wherein the plurality of metals layers are configured into a plurality of metal pads; characterised in that the dielectric layer within a footprint of the UTM conductor is configured with a plurality of vias (125, 408) connecting individual ones of the metal pads between neighboring pairs of the metal layers into a plurality of dummy metal fill interrupted via stacks (155, 410) that do not extend across more than three of the metal layers. a substrate; a dielectric layer on a surface of the substrate; a plurality of metal layers (M1-M4) within the dielectric layer, wherein the plurality of metal layers equals at least four metal layers; and an ultra-thick-metal, UTM, conductor on a surface of the dielectric layer; wherein the plurality of metals layers are configured into a plurality of metal pads; characterised in that the dielectric layer within a footprint of the UTM conductor is configured with a plurality of vias (125, 408) connecting individual ones of the metal pads between neighboring pairs of the metal layers into a plurality of dummy metal fill interrupted via stacks (155, 410) that do not extend across more than three of the metal layers.
A composition comprising: a biological material; a polyhydroxyl compound; and hygroscopic nanoparticles, wherein the composition is freeze-dried, wherein the nanoparticles are polymer-stabilized calcium phosphate nanoparticles or starch nanoparticles; and wherein the biological material is a lactic acid bacteria and/or a probiotic bacteria. a biological material; a polyhydroxyl compound; and hygroscopic nanoparticles, wherein the composition is freeze-dried, wherein the nanoparticles are polymer-stabilized calcium phosphate nanoparticles or starch nanoparticles; and wherein the biological material is a lactic acid bacteria and/or a probiotic bacteria.
A safety razor comprising: a. a handle, said handle comprising a grip portion and a connection portion, said connection portion rotating with respect to said grip portion about a rotational axis, said connection portion forming a docking portion suitable for receiving an optional blade unit, said docking portion being positioned opposite distally away from said grip portion, b. wherein the grip portion and the connection portion are connected by a rod, said rod comprising a distal end non-rotatably attached to the grip portion and a proximal end non-rotatably attached to the connection portion, wherein the rotational axis forms a central longitudinal axis of said rod, characterized in that said rod comprises a first layer laminated with a second layer. a. a handle, said handle comprising a grip portion and a connection portion, said connection portion rotating with respect to said grip portion about a rotational axis, said connection portion forming a docking portion suitable for receiving an optional blade unit, said docking portion being positioned opposite distally away from said grip portion, b. wherein the grip portion and the connection portion are connected by a rod, said rod comprising a distal end non-rotatably attached to the grip portion and a proximal end non-rotatably attached to the connection portion, wherein the rotational axis forms a central longitudinal axis of said rod,
A method for determining the amount or concentration of a nucleic acid of interest in an unprocessed sample, the method comprising the steps of: a) - having an unprocessed sample suspected of containing the nucleic acid of interest and - providing a reference sample known to contain a reference nucleic acid, which is different from the nucleic acid of interest; b) combining the unprocessed sample with a defined amount of the reference sample, thereby obtaining a combined sample; c) processing the combined sample, thereby obtaining a processed sample suitable for digital polymerase chain reaction (dPCR); d) performing the dPCR with the processed sample, thereby determining the amount or concentration of the nucleic acid of interest and the amount or concentration of the reference nucleic acid in the processed sample; e) performing the dPCR with a defined amount of the reference sample, thereby determining the amount or concentration of the reference nucleic acid in the defined amount of the reference sample; f) comparing the amount or concentration of the reference nucleic acid determined in step d) to that determined in step e), thereby determining the yield of the nucleic acid in step c); and g) determining the amount or concentration of the nucleic acid of interest in the unprocessed sample based on the amount or concentration of the nucleic acid of interest in the processed sample determined in step d) and the yield determined in step f). a) - having an unprocessed sample suspected of containing the nucleic acid of interest and - providing a reference sample known to contain a reference nucleic acid, which is different from the nucleic acid of interest; - having an unprocessed sample suspected of containing the nucleic acid of interest and - providing a reference sample known to contain a reference nucleic acid, which is different from the nucleic acid of interest; b) combining the unprocessed sample with a defined amount of the reference sample, thereby obtaining a combined sample; c) processing the combined sample, thereby obtaining a processed sample suitable for digital polymerase chain reaction (dPCR); d) performing the dPCR with the processed sample, thereby determining the amount or concentration of the nucleic acid of interest and the amount or concentration of the reference nucleic acid in the processed sample; e) performing the dPCR with a defined amount of the reference sample, thereby determining the amount or concentration of the reference nucleic acid in the defined amount of the reference sample; f) comparing the amount or concentration of the reference nucleic acid determined in step d) to that determined in step e), thereby determining the yield of the nucleic acid in step c); and g) determining the amount or concentration of the nucleic acid of interest in the unprocessed sample based on the amount or concentration of the nucleic acid of interest in the processed sample determined in step d) and the yield determined in step f).
A differential pressure sensor comprising: a differential pressure sensing die, having a semiconductor die including an integral sensing diaphragm, a piezo-resistive element being defined on the sensing diaphragm, a first support structure bonded to a surface of the semiconductor die, the first support structure having a first aperture defined therethrough exposing said sensing diaphragm through the first aperture, and a second support structure bonded to an opposing surface of the semiconductor die, the second support structure having a second aperture defined therethrough exposing the sensing diaphragm through the second aperture; an upper housing, defining an upper interior volume (405, 406) in fluid communication with said first aperture and having an upper flexible diaphragm defining a wall of the upper interior volume (405, 406); a lower housing defining a lower interior volume (408, 415) in fluid communication with said second aperture, and having a lower flexible diaphragm defining a wall of the lower interior volume (408, 415); and an electrical circuit coupled to the piezo-resistive element for determining a differential pressure applied to the sensing diaphragm, said electrical circuit being on said semiconductor die exteriorto said first support structure and said second support structure and to said upper interior volume (405, 406) and said lower interior volume (408, 415), characterized in that the first aperture and the second aperture have diameters that correspond to a diameter of the sensing diaphragm. a differential pressure sensing die, having a semiconductor die including an integral sensing diaphragm, a piezo-resistive element being defined on the sensing diaphragm, a first support structure bonded to a surface of the semiconductor die, the first support structure having a first aperture defined therethrough exposing said sensing diaphragm through the first aperture, and a second support structure bonded to an opposing surface of the semiconductor die, the second support structure having a second aperture defined therethrough exposing the sensing diaphragm through the second aperture; an upper housing, defining an upper interior volume (405, 406) in fluid communication with said first aperture and having an upper flexible diaphragm defining a wall of the upper interior volume (405, 406); a lower housing defining a lower interior volume (408, 415) in fluid communication with said second aperture, and having a lower flexible diaphragm defining a wall of the lower interior volume (408, 415); and an electrical circuit coupled to the piezo-resistive element for determining a differential pressure applied to the sensing diaphragm, said electrical circuit being on said semiconductor die exteriorto said first support structure and said second support structure and to said upper interior volume (405, 406) and said lower interior volume (408, 415), characterized in that the first aperture and the second aperture have diameters that correspond to a diameter of the sensing diaphragm.