mhurhangee/ep-ind-claims huggingface dataset:
A method of manufacturing an optical fiber (1, 11) which allows propagation of two or more modes, wherein the amount XT of coupling between the two modes satisfies Expression: XT = 10 ⋅ log 10 zh dB; XT ≥ + 14 dB wherein h [1/km] represents a mode coupling coefficient between at least two modes among the two or more modes, and z [km] represents a length of the optical fiber, the method comprising: a first step of determining, based on a theoretical expression relating to an impulse response, a mode coupling coefficient such that a normalized impulse response waveform, in which the amount of coupling between the modes satisfies Expression, is obtained; a second step of determining an effective refractive index difference for obtaining the mode coupling coefficient determined in the first step based on the relationship between a mode coupling coefficient and the effective refractive index difference between two modes acquired in advance; and a third step of designing a refractive index profile of a core of the optical fiber based on the effective refractive index difference determined in the second step. wherein the amount XT of coupling between the two modes satisfies Expression: XT = 10 ⋅ log 10 zh dB; XT ≥ + 14 dB wherein h [1/km] represents a mode coupling coefficient between at least two modes among the two or more modes, and z [km] represents a length of the optical fiber, the method comprising: a first step of determining, based on a theoretical expression relating to an impulse response, a mode coupling coefficient such that a normalized impulse response waveform, in which the amount of coupling between the modes satisfies Expression, is obtained; a second step of determining an effective refractive index difference for obtaining the mode coupling coefficient determined in the first step based on the relationship between a mode coupling coefficient and the effective refractive index difference between two modes acquired in advance; and a third step of designing a refractive index profile of a core of the optical fiber based on the effective refractive index difference determined in the second step. a first step of determining, based on a theoretical expression relating to an impulse response, a mode coupling coefficient such that a normalized impulse response waveform, in which the amount of coupling between the modes satisfies Expression, is obtained; a second step of determining an effective refractive index difference for obtaining the mode coupling coefficient determined in the first step based on the relationship between a mode coupling coefficient and the effective refractive index difference between two modes acquired in advance; and a third step of designing a refractive index profile of a core of the optical fiber based on the effective refractive index difference determined in the second step.
Device for dynamically calibrating pressure sensors having a housing, a cylinder, connected to the housing, for receiving a fluid, which cylinder is able to be connected, via a first opening, to a first pressure sensor, which is therefore in contact with the fluid, an actuator and a piston interacting with the cylinder, wherein the actuator is arranged between the housing and a side, facing away from the cylinder, of the piston, characterized in that - the device is statically determined in each case only by a housing -actuator and actuator -piston connection, since it does not have a connection to a larger mass, in particular does not have a connection to a base, - in that the actuator is designed as a piezoelectric actuator, and - in that the piston is sealed in the cylinder relative to the surrounding atmosphere by a seal and is arranged so as to be able to move in the seal. - the device is statically determined in each case only by a housing -actuator and actuator -piston connection, since it does not have a connection to a larger mass, in particular does not have a connection to a base, - in that the actuator is designed as a piezoelectric actuator, and - in that the piston is sealed in the cylinder relative to the surrounding atmosphere by a seal and is arranged so as to be able to move in the seal.
A method of heat treating a nickel-base alloy comprising in percent by weight, up to 0.1 carbon, from 12 to 20 chromium, up to 4 molybdenum, up to 6 tungsten, from 5 to 12 cobalt, up to 14 iron, from 4 to 8 niobium, from 0.6 to 2.6 aluminum, from 0.4 to 1.4 titanium, from 0.003 to 0.03 phosphorus, from 0.003 to 0.015 boron, and balance nickel; wherein a sum of the weight percent of molybdenum and the weight percent of tungsten is at least 2 and not more than 8, and wherein a sum of atomic percent aluminium and atomic percent titanium is from 2 to 6, a ratio of atomic percent aluminum to atomic percent titanium is at least 1.5, and the sum of atomic percent aluminum and atomic percent titanium divided by atomic percent niobium is from 0.8 to 1. 3; the method comprising: pre-solution treating the nickel-base alloy, wherein pre-solution heat treating comprises heating the nickel-base alloy at a temperature ranging from 815°C (1500°F) of to 899°C (1650°F) for a time ranging from 2 hours to 16 hours; solution treating the nickel-base alloy wherein solution treating the nickel-base alloy comprises heating the nickel-base alloy at a temperature ranging from 940°C (1725°F) to 1010°C (1850°F) for no greater than 4 hours; cooling the nickel-base alloy after solution treating the nickel-base alloy at a first cooling rate wherein the first cooling rate is at least 444°C (800°F) per hour; aging the nickel-base alloy in a first aging treatment wherein the first aging treatment comprises heating the nickel-base alloy at a temperature ranging from 718°C (1325°F) to 788°C (1450°F) for a time ranging from 2 hours to 8 hours; and aging the nickel-base alloy in a second aging treatment wherein the second aging treatment comprises heating the nickel-base alloy at a temperature ranging from 621°C (1150°F) to 704°C (1300°F) for at least 8 hours. pre-solution treating the nickel-base alloy, wherein pre-solution heat treating comprises heating the nickel-base alloy at a temperature ranging from 815°C (1500°F) of to 899°C (1650°F) for a time ranging from 2 hours to 16 hours; solution treating the nickel-base alloy wherein solution treating the nickel-base alloy comprises heating the nickel-base alloy at a temperature ranging from 940°C (1725°F) to 1010°C (1850°F) for no greater than 4 hours; cooling the nickel-base alloy after solution treating the nickel-base alloy at a first cooling rate wherein the first cooling rate is at least 444°C (800°F) per hour; aging the nickel-base alloy in a first aging treatment wherein the first aging treatment comprises heating the nickel-base alloy at a temperature ranging from 718°C (1325°F) to 788°C (1450°F) for a time ranging from 2 hours to 8 hours; and aging the nickel-base alloy in a second aging treatment wherein the second aging treatment comprises heating the nickel-base alloy at a temperature ranging from 621°C (1150°F) to 704°C (1300°F) for at least 8 hours.
An ophthalmic aspiration system that can be used with a handpiece and a vacuum source, comprising: a first tube adapted to be attached to the handpiece, said first tube having a first inner diameter; a second tube adapted to be attached to the vacuum source, said second tube having a second inner diameter that is smaller than said first inner diameter of said first tube; a filter assembly coupled to said first and second tubes; and wherein an inner diameter of said second tube has a lower limit of 0.25 mm [0.01 inches] and the inner diameter is less than 1.27 mm [0.05 inches], characterized in that said second tube has a length of at least 914,4 mm [3feet], wherein the ophthalmic aspiration system is configured to not allow for a flow rate greater than 60 cc/min, and is configured to operate at a vacuum pressure of at least 400 mmHg. a first tube adapted to be attached to the handpiece, said first tube having a first inner diameter; a second tube adapted to be attached to the vacuum source, said second tube having a second inner diameter that is smaller than said first inner diameter of said first tube; a filter assembly coupled to said first and second tubes; and wherein an inner diameter of said second tube has a lower limit of 0.25 mm [0.01 inches] and the inner diameter is less than 1.27 mm [0.05 inches], characterized in that said second tube has a length of at least 914,4 mm [3feet], wherein the ophthalmic aspiration system is configured to not allow for a flow rate greater than 60 cc/min, and is configured to operate at a vacuum pressure of at least 400 mmHg.
A plug for electrical equipment, the plug comprising a pin and the pin comprising an electrical terminal contact, the plug further comprising a housing (3; 6), the plug arranged to be received in a socket, wherein the pin and the housing configured to enable the pin to be pivoted out of the socket by way of a force applied to a cable entry region of the plug by a cable attached to the plug, wherein an effective length of the pin is shorter than a housing length, and the housing forms a lever portion from the cable entry region, and the lever portion intended to serve as a lever to enable the pivotable removal of the pin from the socket is substantially orthogonal to the longitudinal axis (A-A) of the pin, and further wherein the pin comprises a radiused end portion located at an end of the pin and the terminal contact arranged to be brought into electrical connection with a contact of the socket, and wherein the plug comprises at least one further electrical terminal contact (4a, 4b) which is radially spaced from the pin, and the at least one further electrical terminal contact arranged to face the same general direction as the longitudinal extent of the pin, and the further electrical terminal contact is rearward of the tip of the pin on a forward-facing surface of the plug, so as to be arranged to electrically contact with an electrical contact (11a, 11b) provided on an externally facing surface of the socket.
A cytotoxically active CD3 specific binding construct comprising a first domain specifically binding to human CD3 and an Ig-derived second binding domain, wherein said first domain is deimmunized and comprises a CDR-H1 region comprising an amino acid sequence as depicted in SEQ ID NO: 88, a CDR-H2 region comprising an amino acid sequence as depicted in SEQ ID NO: 90 or 92 and a CDR-H3 region comprising an amino acid sequence as depicted in SEQ ID NO: 96; and wherein said first domain comprises a CDR-L1 as depicted in SEQ ID NO: 98 or 100, a CDR-L2 as depicted in SEQ ID NO: 102 and a CDR-L3 as depicted in SEQ ID NO: 104; and wherein said first domain further comprises in its framework H1 the sequence VKK and wherein the transition sequence between framework H1 and CDRH1 region comprises the sequence Ala-Ser-Gly-Tyr-Thr-Phe (ASGYTF; SEQ ID NO: 233).
An ethyleneimine polymer solution comprising an ethyleneimine polymer and an aqueous solvent, wherein a weight average molecular weight (Mw) of the ethyleneimine polymer is 200,000 or more, the weight average molecular weight (Mw) being measured based on pullulan by gel permeation chromatography, and a ratio of a component having a molecular weight of 30,000 or more is 60 mass% or more with respect to 100 mass% of a total amount of the ethyleneimine polymer.
An isolated Maraba MG1 viral particle having a genome that encodes a protein comprising the amino acid sequence of SEQ ID NO: 1, or a variant of SEQ ID NO: 1 for use in oncolytic viral therapy by inducing an immune response in a mammal in a prime-boost format, wherein a first adenovirus expressing a protein comprising the amino acid sequence of SEQ ID NO: 1, or a variant of SEQ ID NO: 1, as an antigenic protein, is administered to the mammal in an amount suitable to generate an immune response, and the Maraba MG1 virus is administered in an amount suitable for oncolytic viral therapy; and wherein the first adenovirus is administered as a priming vector and the Maraba MG1 virus is administered as a boosting vector in a first and second boost.
A system comprising a fiber-structured heating element, a copper conductor and a conductor joint joining the two, wherein the dimensions of the heating element are length >> width >> thickness, and which heating element comprises carbon fiber strands, wherein for the joint the copper conductor is transversely disposed to the longitudinal direction of the heating element to form a layered structure in the thickness direction, on both sides of the heating element, the copper conductor comprising strands separable from each other, characterized in that the strands of the copper conductor, the number and diameter of which are suitable for transferring a power of more than ten kW, are quantitatively substantially evenly distributed on both sides of the heating element, the strands are disposed in a planar manner in such a way that the strands substantially lie in one plane, adjacent to each other, and the ends of the strands extend, in the width direction of the heating element, beyond the heating element, wherein the portions of the ends of the strands extending beyond the heating element overlap each other, and an electric joint is formed between the lateral faces of these overlapping strands.
Drainage body surface unit having spacer elements (10, 10') connected via a bottom and conical at an angle α to the vertical which exhibit lateral surfaces extending in a wave-shape as seen in cross-section, which comprise successive wave crests and wave troughs, characterized in that the wave crests merge into the wave troughs via transition areas, wherein the transition areas have a lower material thickness than the wave troughs.
A liquid pharmaceutical formulation for subcutaneous or intramuscular injection comprising: (i) an antibody; (ii) a viscosity-reducing water soluble organic dye comprising Yellow 5 or Orange G; and (iii) a pharmaceutically acceptable solvent; wherein the liquid pharmaceutical formulation, when in a volume suitable for injection has an antibody concentration from about 100mg to about 2,000mg per 1 mL (mg/mL). (i) an antibody; (ii) a viscosity-reducing water soluble organic dye comprising Yellow 5 or Orange G; and (iii) a pharmaceutically acceptable solvent;
An ultrasonic transducer for a downhole tool positionable in a borehole penetrating a subterranean formation, comprising: a piezoelectric element that converts electrical current into ultrasonic waves, and detects ultrasonic waves and converts the detected ultrasonic waves into electric current; a backing coupled to the piezoelectric element that attenuates the ultrasonic waves; a compliant housing disposed about the backing, wherein the compliant housing is molded in one piece and is configured to deform to temperature or pressure and to encapsulate and seal the piezoelectric element and the backing from downhole fluids; and a mechanical support coupled to the piezoelectric element and the backing, wherein the mechanical support has at least one groove on an outer surface thereof for forming a seal with the compliant housing. a piezoelectric element that converts electrical current into ultrasonic waves, and detects ultrasonic waves and converts the detected ultrasonic waves into electric current; a backing coupled to the piezoelectric element that attenuates the ultrasonic waves; a compliant housing disposed about the backing, wherein the compliant housing is molded in one piece and is configured to deform to temperature or pressure and to encapsulate and seal the piezoelectric element and the backing from downhole fluids; and a mechanical support coupled to the piezoelectric element and the backing, wherein the mechanical support has at least one groove on an outer surface thereof for forming a seal with the compliant housing.
A paint composition comprising at least a latex binder, an opacifying pigment and a grafted pigment dispersing polymeric additive, wherein the grafted pigment dispersing additive comprises a polymeric pigment dispersant and a polymeric carrier grafted to each other, wherein the polymeric pigment dispersant has a weight average molecular weight of 1,000 Daltons to 20,000 Daltons and an acid number from 150 to 250 and wherein the polymeric pigment dispersant is soluble in an alkali solution, and wherein the minimum film forming temperature (MFFT) of the polymeric carrier is greater than 10°C and less than 130°C, and wherein the grafted pigment dispersing polymeric additive is capable of adsorbing to an opacifying pigment.
Metal detector, comprising a metallic enclosure with an entrance aperture and an exit aperture whose cross-sectional areas differ from each other in size, further comprising inside the enclosure a coil system bounding a detection zone which extends between the entrance and exit apertures (430, 431) and through which objects under inspection can move along a travel path entering the metal detector through the entrance aperture and leaving the metal detector through the exit aperture, said detection zone having a cross-sectional profile that varies along said travel path, characterized in that sais coil system comprises at least one transmitter coil and at least one first and at least one second recevoir coil (424,425), said coils (423, 424, 425) differing in size from each other, wherein the at least one transmitter coil, when energized by an alternating electric current, generates a primary electromagnetic field which, in turn, induces a first voltage in the at least one first receiver coil and a second voltage in the at least one second receiver coil, and wherein the at least one first receiver coil and the at least one second receiver coil are positioned relative to said at least one transmitter coil at an unequal distance, so that the first and second voltages cancel each other when there is no metal present in said objects under inspection.
An electronic device comprising: a battery pack; a case frame (11,12) having an opening forming a battery pack mount portion in which the battery pack is mounted; and a sheet plate blocking the opening at a backside of the battery pack mount portion; wherein the battery pack comprises: a battery cell; and first and second support bodies (22, 23) supporting the battery cell on opposing ends of the battery cell; wherein the first support body includes either a recess (221, 222) or a protrusion; and wherein one or more seat protrusions (231, 232, 233) protrude from the second support body to an outer direction; wherein the battery pack mount portion comprises: one or more seat recesses (111, 112, 113) in which the one or more seat protrusions (231, 232, 233) are seated; and a protrusion or a recess corresponding to the first support body recess (221, 222) or protrusion; and wherein when the battery pack is mounted the one or more seat protrusions (231, 232, 233) are supported by the seat recesses (111, 112, 113), and the first support body recess (221, 222) or protrusion is coupled to the corresponding protrusion or recess. a battery pack; a case frame (11,12) having an opening forming a battery pack mount portion in which the battery pack is mounted; and a sheet plate blocking the opening at a backside of the battery pack mount portion; wherein the battery pack comprises: a battery cell; and first and second support bodies (22, 23) supporting the battery cell on opposing ends of the battery cell; wherein the first support body includes either a recess (221, 222) or a protrusion; and wherein one or more seat protrusions (231, 232, 233) protrude from the second support body to an outer direction; a battery cell; and first and second support bodies (22, 23) supporting the battery cell on opposing ends of the battery cell; wherein the first support body includes either a recess (221, 222) or a protrusion; and wherein one or more seat protrusions (231, 232, 233) protrude from the second support body to an outer direction; wherein the battery pack mount portion comprises: one or more seat recesses (111, 112, 113) in which the one or more seat protrusions (231, 232, 233) are seated; and a protrusion or a recess corresponding to the first support body recess (221, 222) or protrusion; and one or more seat recesses (111, 112, 113) in which the one or more seat protrusions (231, 232, 233) are seated; and a protrusion or a recess corresponding to the first support body recess (221, 222) or protrusion; and wherein when the battery pack is mounted the one or more seat protrusions (231, 232, 233) are supported by the seat recesses (111, 112, 113), and the first support body recess (221, 222) or protrusion is coupled to the corresponding protrusion or recess.
A blade of a rotary flow machine comprising: - an airfoil having: a suction surface and a pressure surface joined to each other along a trailing and a leading edge (4, 5); a radially outward directed airfoil tip; and a radially inward directed end joining an inner platform connecting the airfoil to a shank at a radial end of the airfoil; - at least one shank pocket encircled radially outwardly by an axially extending portion of the platform and at least one radially extending rim that extends from the trailing edge side of the shank and has an essentially radially orientated first slot for receiving a seal; and - a mount extending radially inwardly from said shank pocket, characterized in that said first slot has a first aperture, on a shank surface, oriented in an axial direction, wherein the first aperture is arranged at one end of the radially orientated slot and said one end is the radially outer end of the slot,wherein the slot is a grooved-shaped recess in the at least one radially directed rim and has a radially outward end which is bordered axially by a nose-like contour separating the radially outward end of the slot from the first aperture. - an airfoil having: a suction surface and a pressure surface joined to each other along a trailing and a leading edge (4, 5); a radially outward directed airfoil tip; and a radially inward directed end joining an inner platform connecting the airfoil to a shank at a radial end of the airfoil; a suction surface and a pressure surface joined to each other along a trailing and a leading edge (4, 5); a radially outward directed airfoil tip; and a radially inward directed end joining an inner platform connecting the airfoil to a shank at a radial end of the airfoil; - at least one shank pocket encircled radially outwardly by an axially extending portion of the platform and at least one radially extending rim that extends from the trailing edge side of the shank and has an essentially radially orientated first slot for receiving a seal; and - a mount extending radially inwardly from said shank pocket, characterized in that said first slot has a first aperture, on a shank surface, oriented in an axial direction, wherein the first aperture is arranged at one end of the radially orientated slot and said one end is the radially outer end of the slot,wherein the slot is a grooved-shaped recess in the at least one radially directed rim and has a radially outward end which is bordered axially by a nose-like contour separating the radially outward end of the slot from the first aperture.