mhurhangee/ep-ind-claims huggingface dataset:
An apparatus for pulse wave velocity determination in a vessel, the apparatus comprising: an intravascular device sized and shaped for positioning within the vessel, the intravascular device including: a flexible elongate member having a proximal portion and a distal portion; and a pressure sensor (202, 204) coupled to the distal portion of the flexible elongate member, the pressure sensor (202, 204) configured to monitor a pressure of a fluid within the vessel; an imaging device configured to monitor a velocity of the fluid within the vessel, the imaging device being configured to obtain imaging data from an external ultrasound transducer configured for positioning proximate to a body portion including the vessel; and a processing system in communication with the intravascular device and the imaging device, the processing system configured to: synchronize the monitoring of the pressure within the vessel by the pressure sensor (202, 204) with the monitoring of the velocity within the vessel by the imaging device; and determine the pulse wave velocity of the fluid within the vessel based on the pressure and the velocity within the vessel. an intravascular device sized and shaped for positioning within the vessel, the intravascular device including: a flexible elongate member having a proximal portion and a distal portion; and a pressure sensor (202, 204) coupled to the distal portion of the flexible elongate member, the pressure sensor (202, 204) configured to monitor a pressure of a fluid within the vessel; a flexible elongate member having a proximal portion and a distal portion; and a pressure sensor (202, 204) coupled to the distal portion of the flexible elongate member, the pressure sensor (202, 204) configured to monitor a pressure of a fluid within the vessel; an imaging device configured to monitor a velocity of the fluid within the vessel, the imaging device being configured to obtain imaging data from an external ultrasound transducer configured for positioning proximate to a body portion including the vessel; and a processing system in communication with the intravascular device and the imaging device, the processing system configured to: synchronize the monitoring of the pressure within the vessel by the pressure sensor (202, 204) with the monitoring of the velocity within the vessel by the imaging device; and determine the pulse wave velocity of the fluid within the vessel based on the pressure and the velocity within the vessel. synchronize the monitoring of the pressure within the vessel by the pressure sensor (202, 204) with the monitoring of the velocity within the vessel by the imaging device; and determine the pulse wave velocity of the fluid within the vessel based on the pressure and the velocity within the vessel.
An apparatus for direct detection of signals from a differential delay heterodyne interferometric system, comprising: - a coherent optical signal source; - a compensator for receiving the optical signals from the coherent signal source and generating a plurality of pulses (1, 2), frequency shifted with respect to each other; - an in line interferometric array receiving the frequency shifted pulses (1, 2) and reflecting interference signals; - a photodiode for detecting the interference signals; and - a direct detector receiving the interference signals for measuring intensity of a plurality of points along each interference signal and calculating phase information using the measured intensity points, the direct detector comprising: - an analog to digital converter for sampling intensity of a waveform generated based on the detected interference signals; and - a digital demodulator for calculating the phase information. - a coherent optical signal source; - a compensator for receiving the optical signals from the coherent signal source and generating a plurality of pulses (1, 2), frequency shifted with respect to each other; - an in line interferometric array receiving the frequency shifted pulses (1, 2) and reflecting interference signals; - a photodiode for detecting the interference signals; and - a direct detector receiving the interference signals for measuring intensity of a plurality of points along each interference signal and calculating phase information using the measured intensity points, the direct detector comprising: - an analog to digital converter for sampling intensity of a waveform generated based on the detected interference signals; and - a digital demodulator for calculating the phase information. - an analog to digital converter for sampling intensity of a waveform generated based on the detected interference signals; and - a digital demodulator for calculating the phase information.
A jounce bumper for a suspension system of a vehicle with the vehicle including a frame member and the suspension system including a strut assembly moveable relative to the frame member, characterized in that said jounce bumper comprises: a outer member capable of being disposed between the frame member and the strut assembly with said outer member having a base portion and a sidewall extending from said base portion with said sidewall flexible relative to said base portion and with said base portion and said sidewall defining a cavity such that said outer member has a cup-shaped configuration; a bumper at least partially seated within said cavity of said outer member with said bumper compressible into said cavity of said outer member such that said bumper expands radially against said sidewall of said outer member thereby forcing said sidewall to flex and expand radially outward; and an isolation layer disposed on said base of said outer member outside of said cavity for separating said outer member and either the strut assembly or the frame member such that said outer member is isolated from either the strut assembly or the frame member as said sidewall of said outer member expands radially outward thereby minimizing noise produced as said bumper is compressed and said sidewall expands radially outward. a outer member capable of being disposed between the frame member and the strut assembly with said outer member having a base portion and a sidewall extending from said base portion with said sidewall flexible relative to said base portion and with said base portion and said sidewall defining a cavity such that said outer member has a cup-shaped configuration; a bumper at least partially seated within said cavity of said outer member with said bumper compressible into said cavity of said outer member such that said bumper expands radially against said sidewall of said outer member thereby forcing said sidewall to flex and expand radially outward; and an isolation layer disposed on said base of said outer member outside of said cavity for separating said outer member and either the strut assembly or the frame member such that said outer member is isolated from either the strut assembly or the frame member as said sidewall of said outer member expands radially outward thereby minimizing noise produced as said bumper is compressed and said sidewall expands radially outward.
A stretchable composite sheet used for a waistline region of a disposable wearable article comprising: a sheet-shaped first member which has a stretchability; and a sheet-shaped second member which is of a lower stretchability than the first member, wherein a pair of edge portions (212, 212) of the first member drawn along a drawing direction from an end to another end of the first member, are contracted in a cross direction which is orthogonal to the drawing direction, and the first member is bonded to the second member, wherein the first member has a region in the vicinity of the edge portions (212, 212) which has a greater basis weight than a basis weight of a central portion in the cross direction. a sheet-shaped first member which has a stretchability; and a sheet-shaped second member which is of a lower stretchability than the first member, wherein a pair of edge portions (212, 212) of the first member drawn along a drawing direction from an end to another end of the first member, are contracted in a cross direction which is orthogonal to the drawing direction, and the first member is bonded to the second member, wherein the first member has a region in the vicinity of the edge portions (212, 212) which has a greater basis weight than a basis weight of a central portion in the cross direction.
A RNA construct comprising a sense segment sequence and an antisense segment sequence having sequences deduced from P0 gene of BMYV genome or from an ortholog gene, wherein said sense segment and said antisense segment sequences both comprise a nucleotide fragment having sequence sharing at least 85% of sequence identity with the P0 gene (SEQ.ID.NO:17) from BMYV genome or from an ortholog gene.
Floor rail (1, 18) for a vehicle, in particular vehicle floor rail, which is configured for attaching a vehicle interior equipment and/or a seat assembly in a vehicle, wherein the floor rail (1, 18) is hollow and has an upper side with a longitudinal slot, wherein the floor rail (1, 18) has, over its longitudinal extent, an outer rail (2, 19) which is configured as a hollow profile with opposite rail longitudinal walls (8, 9) extending in the longitudinal direction of the floor rail (1, 18) and with a rail base (10, 24), wherein the rail base (10, 24) lies opposite the upper side of the floor rail (1, 18) and connects the rail longitudinal walls (8, 9) to each other, and wherein an inner rail (3, 20) is provided which is accommodated within the hollow outer rail (2, 19), wherein the outer rail (2, 19) is composed of a first material, and wherein the inner rail (3, 20) is composed of a second material, characterized in that the inner rail comprises a plurality of recesses (14, 15) in an inner rail wall (12, 13), wherein an outer rail recess (16, 17) is present in a rail longitudinal wall (8, 9) of the outer rail, the rail longitudinal wall (8, 9) being adjacent to the inner rail wall (12, 13), wherein the outer rail recess (16, 17) adjoins a plurality of the recesses (14, 15) in the inner rail wall (12, 13), preferably adjoins all of the recesses (14, 15) in the inner rail wall (12, 13).
A non-aqueous electrolytic solution for a lithium ion secondary battery comprising at least an aprotic solvent, a compound represented by the following formula, and a compound represented by the following formula: wherein Q represents an oxygen atom, a methylene group, or a single bond; A 1 represents an alkylene group having 1 to 5 carbon atoms, a carbonyl group, a sulfinyl group, a fluoroalkylene group having 1 to 6 carbon atoms, or a divalent group having 2 to 6 carbon atoms bonded to an alkylene unit or a fluoroalkylene unit via an ether bond; and A 2 represents an alkylene group, a fluoroalkylene group, or an oxygen atom, wherein T2 represents an alkylene group (CH 2) n, and n is an integer of 1 to 4; and m(R 16) each independently represents a halogen atom, an alkyl group having 1 to 6 carbon atoms, a haloalkyl group having 1 to 6 carbon atoms, an alkenyl group having 2 to 8 carbon atoms, an alkynyl group having 2 to 8 carbon atoms, or an aryl group, and m is each an integer of 0 to 3, wherein the content of the compound represented by the formula in the electrolytic solution is 0.05 % by mass or more and 1 % by mass or less, and the compound of formula is selected from compound nos. 202, 203, 204, 205, 206, 207, 208, 209, 210, 219, 228, 229, 230, 231, 232, 233, 234, 235, 236, 237, 238, 239, 240, 253, 254, 255, and 256 shown below: wherein T2 represents an alkylene group (CH 2) n, and n is an integer of 1 to 4; and m(R 16) each independently represents a halogen atom, an alkyl group having 1 to 6 carbon atoms, a haloalkyl group having 1 to 6 carbon atoms, an alkenyl group having 2 to 8 carbon atoms, an alkynyl group having 2 to 8 carbon atoms, or an aryl group, and m is each an integer of 0 to 3, wherein the content of the compound represented by the formula in the electrolytic solution is 0.05 % by mass or more and 1 % by mass or less, and the compound of formula is selected from compound nos. 202, 203, 204, 205, 206, 207, 208, 209, 210, 219, 228, 229, 230, 231, 232, 233, 234, 235, 236, 237, 238, 239, 240, 253, 254, 255, and 256 shown below:
A device for a fuel filter system (10, 14) that separates water from the fuel, by means of the device the volume of water droplets being increased by the action of a medium in the form of a salt, and a fill amount of the salt being able to make contact with the fuel flowing into the filter system (10, 14) within a housing of the device, characterised in that the fill amount of the salt is present in solid form as a block or stick which is respectively replaceably received in an insert in the form of a cartridge within the housing and is configured in such a way that it fills the housing snugly.
Tanker, in particular liquid manure trailer with a liquid manure tank, a chassis for accommodating at least axles, wheels (8, 9, 10, 11), a drawbar and a liquid manure tank, characterized in that - the chassis consists of a frame formed from hollow bodies (4a, 4b, 6, 7), - the hollow bodies (4a, 4b, 6, 7) are pipes, - the frame is assembled in a fluid-tight manner from the pipes, - liquid manure which is transported by the tanker can be conveyed at least in some of the hollow bodies, - the hollow bodies (4a, 4b, 6, 7) - are pipes which serve directly as conveying lines, or - have corrosion-proof inner pipes or hoses in their interior. - the chassis consists of a frame formed from hollow bodies (4a, 4b, 6, 7), - the hollow bodies (4a, 4b, 6, 7) are pipes, - the frame is assembled in a fluid-tight manner from the pipes, - liquid manure which is transported by the tanker can be conveyed at least in some of the hollow bodies, - the hollow bodies (4a, 4b, 6, 7) - are pipes which serve directly as conveying lines, or - have corrosion-proof inner pipes or hoses in their interior. - are pipes which serve directly as conveying lines, or - have corrosion-proof inner pipes or hoses in their interior.
A method for forming a nacelle leading edge, comprising: positioning a preform between a punch and a die, the punch and the die annularly disposed about a first axis; moving, relatively, at least one of the punch and the preform towards the other of the punch and the preform along the first axis so that a portion of the preform is formed over a leading edge of the punch; offsetting the punch so that the punch is annularly disposed about a second axis, different than the first axis; and characterised in that, following offsetting the punch, moving at least one of the punch and the die towards the other of the punch and the die. positioning a preform between a punch and a die, the punch and the die annularly disposed about a first axis; moving, relatively, at least one of the punch and the preform towards the other of the punch and the preform along the first axis so that a portion of the preform is formed over a leading edge of the punch; offsetting the punch so that the punch is annularly disposed about a second axis, different than the first axis; and characterised in that, following offsetting the punch, moving at least one of the punch and the die towards the other of the punch and the die.
A polyamide-polyphenylene ether resin composition comprising a polyamide having an alicyclic structure and composed of dicarboxylic acid units comprising from 50 to 100 mol% of cyclohexanedicarboxylic acid units and diamine units comprising aliphatic diamine units having from 6 to 12 carbon atoms, a polyphenylene ether, and a compatibilizer for a polyamide and a polyphenylene ether.
A light treatment system (10, 12) comprising a light source (20, 22) for emitting light, for illuminating a part of a human or animal body for light treatment, towards the part of the human or animal body, a housing (40, 42) for at least partially covering the illuminated part of the human or animal body from view, the housing (40, 42) further comprising an indicator window (50, 52, 54, 56) for emitting light from an inner part of the housing (40, 42) away from the housing (40, 42) in a direction different from the direction towards the part of the human or animal body, wherein the light emitted via the indicator window (50, 52, 54, 56) comprises light of a different wavelength compared to the light emitted by the light treatment system (10, 12) towards the part of the human or animal body.
A quantum dot, QD, light emission device comprising: a layered structure comprising a plurality of QD layers (A10-A30), the QD layer comprising a plurality of QDs (QD1-QD3) having light emission characteristics and a plurality of refractive index change layers (R10-R40) configured to modulate the light emission characteristics; and a nano-antenna structure (NA11-NA31; S10) comprising an output coupler configured to control an output characteristic of light emitted from the QD layers, and the plurality of QD layers (A10-A30) and the plurality of refractive index change layers (R10-R40) are alternately arranged in parallel with a direction from the layered structure to the nano-antenna structure, and wherein at least two of the plurality of QD layers have different central emission wavelengths, and the nano-antenna structure (NA11-NA31; S10) comprises one of a metallic antenna, a dielectric antenna, and a slit-containing structure, or has a multi-patch structure or a fishbone antenna structure. a layered structure comprising a plurality of QD layers (A10-A30), the QD layer comprising a plurality of QDs (QD1-QD3) having light emission characteristics and a plurality of refractive index change layers (R10-R40) configured to modulate the light emission characteristics; and a nano-antenna structure (NA11-NA31; S10) comprising an output coupler configured to control an output characteristic of light emitted from the QD layers, and the plurality of QD layers (A10-A30) and the plurality of refractive index change layers (R10-R40) are alternately arranged in parallel with a direction from the layered structure to the nano-antenna structure, and wherein at least two of the plurality of QD layers have different central emission wavelengths, and the nano-antenna structure (NA11-NA31; S10) comprises one of a metallic antenna, a dielectric antenna, and a slit-containing structure, or has a multi-patch structure or a fishbone antenna structure.
Circuit arrangement, having - an X-ray tube, which has a cathode and an anode, and - a high-voltage transformer, which - has at least one primary winding (11.1), - at least one first secondary winding (12.1), which has a first oscillating circuit (12.1.S), wherein the first oscillating circuit (12.1.S) has a first leakage inductance (L σ1) and a first winding capacitance (C W1), which together adjust a first resonance frequency, and - at least one second secondary winding (12.2), which has a second oscillating circuit (12.2.S), wherein the second oscillating circuit (12.2.S) has a second leakage inductance (L σ2) and a second winding capacitance (C W2), which together adjust a second resonance frequency, - wherein the first resonance frequency and the second resonance frequency match, - wherein the first winding capacitance (C W1) and the second winding capacitance (C W2) differ in value and - wherein the first leakage inductance (L σ1) and the second leakage inductance (L σ2) differ in value, characterised in that - the at least one first secondary winding (12.1) is electrically connected to the cathode and - the at least one second secondary winding (12.2) is electrically connected to the anode. - an X-ray tube, which has a cathode and an anode, and - a high-voltage transformer, which - has at least one primary winding (11.1), - at least one first secondary winding (12.1), which has a first oscillating circuit (12.1.S), wherein the first oscillating circuit (12.1.S) has a first leakage inductance (L σ1) and a first winding capacitance (C W1), which together adjust a first resonance frequency, and - at least one second secondary winding (12.2), which has a second oscillating circuit (12.2.S), wherein the second oscillating circuit (12.2.S) has a second leakage inductance (L σ2) and a second winding capacitance (C W2), which together adjust a second resonance frequency, - wherein the first resonance frequency and the second resonance frequency match, - wherein the first winding capacitance (C W1) and the second winding capacitance (C W2) differ in value and - wherein the first leakage inductance (L σ1) and the second leakage inductance (L σ2) differ in value, - the at least one first secondary winding (12.1) is electrically connected to the cathode and - the at least one second secondary winding (12.2) is electrically connected to the anode.
Tool unit for a comminution device with a rotor-stator-system in which the comminution tools are detachably fastened on tool holders on the rotor periphery and interact with the comminution tools arranged on the stator, the tool unit comprising a tool holder, characterized in that the tool holder consists of a first holder section and a second holder section that abut detachably against each other with their rear side over a common contact plane and on whose opposite front sides at least one bearing surface is arranged to accommodate a tool.
An agricultural harvester, comprising: a chassis; and a threshing and separating section for threshing and separating grain from gathered crop material, the threshing and separating section being carried by the chassis; the threshing and separating section comprising: a rotor; a plurality of frame assemblies (72, 74, 76, 78) adjustably positioned proximate to the rotor; a plurality of concaves, each concave being carried by a corresponding one of the frame assemblies (72, 74, 76, 78); and an adjustment mechanism (70, 170) coupled to the frame assemblies (72, 74, 76, 78), the adjustment mechanism (70, 170) comprising a first adjustment member (80, 180), adjustingly coupled to each of the plurality of frame assemblies (72, 74, 76, 78) by a respective plurality of linkages (82, 84, 86, 88, 182, 184, 186, 188), characterized by the respective linkages (82, 84, 86, 88, 182, 184, 186, 188) having different lengths and/or angular orientations relative to the first adjustment member (80, 180). a chassis; and a threshing and separating section for threshing and separating grain from gathered crop material, the threshing and separating section being carried by the chassis; the threshing and separating section comprising: a rotor; a plurality of frame assemblies (72, 74, 76, 78) adjustably positioned proximate to the rotor; a plurality of concaves, each concave being carried by a corresponding one of the frame assemblies (72, 74, 76, 78); and an adjustment mechanism (70, 170) coupled to the frame assemblies (72, 74, 76, 78), the adjustment mechanism (70, 170) comprising a first adjustment member (80, 180), adjustingly coupled to each of the plurality of frame assemblies (72, 74, 76, 78) by a respective plurality of linkages (82, 84, 86, 88, 182, 184, 186, 188), characterized by the respective linkages (82, 84, 86, 88, 182, 184, 186, 188) having different lengths and/or angular orientations relative to the first adjustment member (80, 180). a rotor; a plurality of frame assemblies (72, 74, 76, 78) adjustably positioned proximate to the rotor; a plurality of concaves, each concave being carried by a corresponding one of the frame assemblies (72, 74, 76, 78); and an adjustment mechanism (70, 170) coupled to the frame assemblies (72, 74, 76, 78), the adjustment mechanism (70, 170) comprising a first adjustment member (80, 180), adjustingly coupled to each of the plurality of frame assemblies (72, 74, 76, 78) by a respective plurality of linkages (82, 84, 86, 88, 182, 184, 186, 188), characterized by the respective linkages (82, 84, 86, 88, 182, 184, 186, 188) having different lengths and/or angular orientations relative to the first adjustment member (80, 180).