mhurhangee/ep-ind-claims huggingface dataset:
An interbody spacer system comprising: an interbody spacer including an anterior wall, a posterior wall, and a pair of sidewalls (108, 110) connecting the anterior wall and the posterior wall to form a cavity having open top and bottom, the anterior wall including a first entry aperture, a first sidewall of the pair of sidewalls (108, 110) including a first exit aperture proximate to the anterior wall; a first helical path extending from the first entry aperture to the first exit aperture through a portion of the anterior wall and through a portion of the first sidewall; and a first helical blade configured to enter the first entry aperture and exit the first exit aperture through the first helical path, and extend in a first helical direction across the top of the cavity to a second sidewall of the pair of sidewalls (108, 110) proximate to the posterior wall. an interbody spacer including an anterior wall, a posterior wall, and a pair of sidewalls (108, 110) connecting the anterior wall and the posterior wall to form a cavity having open top and bottom, the anterior wall including a first entry aperture, a first sidewall of the pair of sidewalls (108, 110) including a first exit aperture proximate to the anterior wall; a first helical path extending from the first entry aperture to the first exit aperture through a portion of the anterior wall and through a portion of the first sidewall; and a first helical blade configured to enter the first entry aperture and exit the first exit aperture through the first helical path, and extend in a first helical direction across the top of the cavity to a second sidewall of the pair of sidewalls (108, 110) proximate to the posterior wall.
A method of simulating icing conditions using a wind tunnel, the method comprising: spraying water drops from a number of nozzles into the wind tunnel; and characterized by spraying a mist of cryogenic liquid into a path of the water drops downwind of the nozzles in the wind tunnel, wherein the mist of cryogenic liquid turns the water drops into ice crystals. spraying water drops from a number of nozzles into the wind tunnel; and characterized by spraying a mist of cryogenic liquid into a path of the water drops downwind of the nozzles in the wind tunnel, wherein the mist of cryogenic liquid turns the water drops into ice crystals.
A photocurable coating composition for forming a low refractive layer, comprising: a photopolymerizable compound; inorganic fine particles; two or more kinds of fluorine-containing compounds comprising photoreactive functional groups; and a photopolymerization initiator, wherein the two or more kinds of fluorine-containing compounds comprising photoreactive functional groups have different fluorine contents according to the kind, wherein the two or more kinds of fluorine-containing compounds comprising photoreactive functional groups comprise a first fluorine-containing compound comprising a photoreactive functional group and comprising 25 to 60 wt% of fluorine, and a second fluorine-containing compound comprising a photoreactive functional group and comprising fluorine in the content of 1 wt% or more and less than 25 wt%, wherein a fluorine-containing compound means a compound including at least one fluorine atom in the compound. a photopolymerizable compound; inorganic fine particles; two or more kinds of fluorine-containing compounds comprising photoreactive functional groups; and a photopolymerization initiator, wherein the two or more kinds of fluorine-containing compounds comprising photoreactive functional groups have different fluorine contents according to the kind, wherein the two or more kinds of fluorine-containing compounds comprising photoreactive functional groups comprise a first fluorine-containing compound comprising a photoreactive functional group and comprising 25 to 60 wt% of fluorine, and a second fluorine-containing compound comprising a photoreactive functional group and comprising fluorine in the content of 1 wt% or more and less than 25 wt%, wherein a fluorine-containing compound means a compound including at least one fluorine atom in the compound.
An aptamer for insulin receptor, which specifically binds to an extracellular domain of the insulin receptor and promotes phosphorylation of the insulin receptor, wherein the aptamer comprises a nucleotide sequence selected from the group consisting of: a nucleotide sequence of SEQ ID NO: 2; a nucleotide sequence of SEQ ID NO: 7; a nucleotide sequence of 33 to 80 consecutive nucleotides connected to at least one end of the nucleotide sequence of SEQ ID NO: 2, including essentially the nucleotide sequence of SEQ ID NO: 2 in the nucleotide sequence of SEQ ID NO: 1, and a nucleotide sequence of 27 to 80 consecutive nucleotides connected to at least one end of the nucleotide sequence of SEQ ID NO: 7, including essentially the nucleotide sequence of SEQ ID NO: 7 in the nucleotide sequence of SEQ ID NO: 6. a nucleotide sequence of SEQ ID NO: 2; a nucleotide sequence of SEQ ID NO: 7; a nucleotide sequence of 33 to 80 consecutive nucleotides connected to at least one end of the nucleotide sequence of SEQ ID NO: 2, including essentially the nucleotide sequence of SEQ ID NO: 2 in the nucleotide sequence of SEQ ID NO: 1, and a nucleotide sequence of 27 to 80 consecutive nucleotides connected to at least one end of the nucleotide sequence of SEQ ID NO: 7, including essentially the nucleotide sequence of SEQ ID NO: 7 in the nucleotide sequence of SEQ ID NO: 6.
A work vehicle comprising: an engine including an exhaust gas purifier configured to purify exhaust gas; and a fan shroud disposed ahead of the engine, wherein the exhaust gas purifier includes a filter configured to collect particulate matter in the exhaust gas, the engine includes a differential pressure sensor configured to detect a pressure difference between an upstream side and a downstream side of the filter of the exhaust gas purifier in a direction in which the exhaust gas flows, and the engine includes a pipe connecting the upstream and downstream sides of the filter of the exhaust gas purifier to the differential pressure sensor, a part of an upper portion of the fan shroud includes a bent portion that bends toward the exhaust gas purifier, characterized in that the pressure difference sensor is supported by the bent portion of the fan shroud. an engine including an exhaust gas purifier configured to purify exhaust gas; and a fan shroud disposed ahead of the engine, wherein the exhaust gas purifier includes a filter configured to collect particulate matter in the exhaust gas, the engine includes a differential pressure sensor configured to detect a pressure difference between an upstream side and a downstream side of the filter of the exhaust gas purifier in a direction in which the exhaust gas flows, and the engine includes a pipe connecting the upstream and downstream sides of the filter of the exhaust gas purifier to the differential pressure sensor, a part of an upper portion of the fan shroud includes a bent portion that bends toward the exhaust gas purifier, characterized in that the pressure difference sensor is supported by the bent portion of the fan shroud.
Incontinence article in pants form for absorbing bodily excretions with a front stomach section and a rear back section, which are formed by separate components which are spaced apart in a longitudinal direction along a center longitudinal axis, however which are connected to each other by the manufacturer at lateral seam regions on both sides to from a stomach and back band which is continuous in transverse or waist circumferential direction with a waist opening which is closed in waist circumferential direction, and with a crotch section having an absorption body, which crotch section extends in the longitudinal direction between the stomach section and the back section and is non-detachably connected with its body averted side to the stomach section and to the back section in a respective overlapping region (36, 38), wherein the stomach section (40, the back section and the crotch section together delimit leg openings of the incontinence article, wherein in the stomach section and the back section first elastifying means (28, 29) are provided which extend spaced apart from each other and parallel to each other in transverse or waist circumferential direction and in this way extensively elastify the stomach section and the back section, wherein in a crotch side region of the stomach section and the back section which crotch side region faces the leg openings second elastifying means (40 42) are provided which starting from the two lateral seam regions extend in the direction toward a longitudinal center axis of the incontinence article and fan out arch like along their extension with increasing distance to each other and extend into the overlapping region (36, 38) of crotch section and stomach section or of crotch section and back section wherein they may there no longer have their elastifying effect and can in particular be cut, characterized in that the crotch section is non-detachably connected with the stomach section and with the back section by means of multiple adhesive strips which are spaced apart by adhesive free strips and extend in the overlapping region of crotch section and stomach section and in the overlapping region of crotch section and back section, wherein the adhesive strips extend essentially over the entire respective overlapping region (36, 38) and in that the width of at least those adhesive strips which relative to optionally border-side provided adhesive strips (88, 90) are situated inwardly, transverse to their extent is at least 1 mm to at most 5 mm, and in that the width of the adhesive free strips transverse to their extent is at least 1 mm to at most 15 mm.
An inflator mounted on protective equipment, the inflator comprising: a main body having a cylindrical structure with upper and lower openings, provided with a key ball insertion hole and a gas supply hole in lateral portions thereof, and provided, at a lower side thereof, with a bomb coupled thereto to store a compressed air; an eccentric lever rotatably coupled to the upper opening of the main body by a rotary shaft and comprising a lever to adjust downward pressure by rotating an eccentric drum part having a circular plate shape; a perforating part to provide a restoring force downward according to a pressure state of the eccentric lever and to perforate the bomb so as to supply a gas of the bomb to protective equipment of a user via the gas supply hole; and a key ball to restrict movement of the perforating part while being inserted into the key ball insertion hole and escape therefrom according to an external state to operate the perforating part. a main body having a cylindrical structure with upper and lower openings, provided with a key ball insertion hole and a gas supply hole in lateral portions thereof, and provided, at a lower side thereof, with a bomb coupled thereto to store a compressed air; an eccentric lever rotatably coupled to the upper opening of the main body by a rotary shaft and comprising a lever to adjust downward pressure by rotating an eccentric drum part having a circular plate shape; a perforating part to provide a restoring force downward according to a pressure state of the eccentric lever and to perforate the bomb so as to supply a gas of the bomb to protective equipment of a user via the gas supply hole; and a key ball to restrict movement of the perforating part while being inserted into the key ball insertion hole and escape therefrom according to an external state to operate the perforating part.
Group of carton sleeves for producing packaging for food products, in particular liquid food, characterised in that each carton sleeve is folded flat, in that the group has a plurality of carton sleeves which are folded flat and combined so as to stand upright, in that the upper and/or lower cut edges (1*) are directed upwards and in that the cut edges (1*) are treated by means of a sterilising agent so the sterilising agent has penetrated at least into the end region of the upper and/or lower cut edges (1*).
A golf club head comprising: a face plate including at least one face plate retaining member; a body member positioned rearwardly of the face plate and having at least one body retaining member; and a tensioning assembly comprising a tension element and a tensioning member connected to the tension element, wherein the tension element is a cable, cord, rope, wire, fiber, ribbon, chain or filament, and the tension element engages the face plate and body member retaining members to releasably secure the face plate to the body member. a face plate including at least one face plate retaining member; a body member positioned rearwardly of the face plate and having at least one body retaining member; and a tensioning assembly comprising a tension element and a tensioning member connected to the tension element, wherein the tension element is a cable, cord, rope, wire, fiber, ribbon, chain or filament, and the tension element engages the face plate and body member retaining members to releasably secure the face plate to the body member.
An ink composition for writing instruments containing a coloring material obtainable by, in a condensation step of the sulfonic acid resin represented by Formula, which is obtained by mixing formaldehyde with p-toluenesulfonamide and heating them to subject them to condensation reaction, adding at least one selected from a leuco dye, a halochromic dye and a photochromic compound to finish the dehydration condensation and then cooling and solidifying the reaction product:
A measuring device for measuring the capacitance of a capacitive component, characterized by comprising: - pulse generating means (23, 24), which are connected to the capacitive component whose capacitance is being measured, to generate a first train of pulses of a frequency (f 1) related to the unknown capacitance being measured, and are connected to a reference capacitive component having a known reference capacitance (C REF), to generate a second train of pulses of a frequency (f 2) related to said reference capacitance (C REF); and - processing means (22, 26) connected to said pulse generating means (23, 24) and configured to determine the time difference (ΔT) between the times (T1, T2) taken by the first and second train of pulses (M, L) to reach a given number of pulses (Th 1, Th 2), and to calculate the difference (ΔC) between the unknown capacitance and the reference capacitance (C REF) as a function of said time difference (ΔT); said processing means (22, 26) being further configured to calculate the unknown capacitance of said capacitive component as a function of said difference in capacitance (ΔC) and in said reference capacitance (C REF). - pulse generating means (23, 24), which are connected to the capacitive component whose capacitance is being measured, to generate a first train of pulses of a frequency (f 1) related to the unknown capacitance being measured, and are connected to a reference capacitive component having a known reference capacitance (C REF), to generate a second train of pulses of a frequency (f 2) related to said reference capacitance (C REF); and - processing means (22, 26) connected to said pulse generating means (23, 24) and configured to determine the time difference (ΔT) between the times (T1, T2) taken by the first and second train of pulses (M, L) to reach a given number of pulses (Th 1, Th 2), and to calculate the difference (ΔC) between the unknown capacitance and the reference capacitance (C REF) as a function of said time difference (ΔT); said processing means (22, 26) being further configured to calculate the unknown capacitance of said capacitive component as a function of said difference in capacitance (ΔC) and in said reference capacitance (C REF).
Abrasive tool comprising an abrasive carrier having a shaft for connecting the abrasive carrier to a drive means for rotatably driving the abrasive carrier about a longitudinal axis and a core connected to an axial end of the shaft, wherein the core consists of a material mixture comprising a plastic with a thermally conductive filler, wherein the filler has a thermal conductivity greater than 35 watts per metre and per Kelvin, and an abrasive means, characterised in that the abrasive means has a surface which is closed in the circumferential direction about the longitudinal axis and which encloses a cavity extending along the longitudinal axis, wherein the core is received at least in sections in the cavity, and that the plastic is foamed. an abrasive carrier having a shaft for connecting the abrasive carrier to a drive means for rotatably driving the abrasive carrier about a longitudinal axis and a core connected to an axial end of the shaft, wherein the core consists of a material mixture comprising a plastic with a thermally conductive filler, wherein the filler has a thermal conductivity greater than 35 watts per metre and per Kelvin, and an abrasive means, characterised in that the abrasive means has a surface which is closed in the circumferential direction about the longitudinal axis and which encloses a cavity extending along the longitudinal axis, wherein the core is received at least in sections in the cavity, and that the plastic is foamed.
A fluorescence sensor (10, 150) comprising: a fluorescence unit comprising a fluorescent dye, wherein the fluorescence unit is configured to generate fluorescence in an amount correlating with concentration of analytes by receiving excitation light; a measurement optical system configured to emit the excitation light and detect the fluorescence from the fluorescence unit; a sensor body in which the measurement optical system is embedded; and a light guide unit (40C, 40D) that is optically connected to the sensor body and is configured to bi-directionally guide light between the measurement optical system and the fluorescence unit, wherein the light guide unit (40C, 40D) includes at least an optical-wave guide film (42c, 42d) in which three or more optical waveguides are formed; wherein the optical waveguides are configured as transmission paths through which excitation light and fluorescence are transmitted; and wherein the optical waveguide film further comprises a front unit wherein an exposure space is formed in the front unit; each of the optical waveguides comprises an end surface; and the exposure space is used to expose the end surfaces; and the fluorescence unit is inserted in the exposure space, wherein the exposed end surfaces are covered with the fluorescence unit; and wherein a number of optical waveguides to which the fluorescence is input and through which the fluorescence is detected by the measurement optical system is larger than a number of optical waveguides through which the excitation light is output towards the fluorescence unit. a fluorescence unit comprising a fluorescent dye, wherein the fluorescence unit is configured to generate fluorescence in an amount correlating with concentration of analytes by receiving excitation light; a measurement optical system configured to emit the excitation light and detect the fluorescence from the fluorescence unit; a sensor body in which the measurement optical system is embedded; and a light guide unit (40C, 40D) that is optically connected to the sensor body and is configured to bi-directionally guide light between the measurement optical system and the fluorescence unit, wherein the light guide unit (40C, 40D) includes at least an optical-wave guide film (42c, 42d) in which three or more optical waveguides are formed; wherein the optical waveguides are configured as transmission paths through which excitation light and fluorescence are transmitted; and wherein the optical waveguide film further comprises a front unit wherein an exposure space is formed in the front unit; each of the optical waveguides comprises an end surface; and the exposure space is used to expose the end surfaces; and the fluorescence unit is inserted in the exposure space, wherein the exposed end surfaces are covered with the fluorescence unit; and wherein a number of optical waveguides to which the fluorescence is input and through which the fluorescence is detected by the measurement optical system is larger than a number of optical waveguides through which the excitation light is output towards the fluorescence unit.
An audio decoder (100; 300) for providing a decoded audio information (112;312) on the basis of an encoded audio information (110; 310), the audio decoder comprising: an error concealment (130; 380; 500) configured to provide an error concealment audio information (132; 382; 512) for concealing a loss of an audio frame following an audio frame encoded in a frequency domain representation using a time domain excitation signal; the audio decoder is characterised in that: the frequency domain representation comprises an encoded representation of a plurality of spectral values and an encoded representation of a plurality of scale factors for scaling the spectral values, and wherein the audio decoder is configured to provide a plurality of decoded scale factors (352, 354) for scaling spectral values on the basis of a plurality of encoded scale factors, or wherein the audio decoder is configured to derive a plurality of scale factors for scaling the spectral values from an encoded representation of LPC parameters; and wherein the error concealment (130; 380; 500) is configured to obtain the time domain excitation signal on the basis of the audio frame encoded in the frequency domain representation preceding a lost audio frame. an error concealment (130; 380; 500) configured to provide an error concealment audio information (132; 382; 512) for concealing a loss of an audio frame following an audio frame encoded in a frequency domain representation using a time domain excitation signal; the audio decoder is characterised in that: the frequency domain representation comprises an encoded representation of a plurality of spectral values and an encoded representation of a plurality of scale factors for scaling the spectral values, and wherein the audio decoder is configured to provide a plurality of decoded scale factors (352, 354) for scaling spectral values on the basis of a plurality of encoded scale factors, or wherein the audio decoder is configured to derive a plurality of scale factors for scaling the spectral values from an encoded representation of LPC parameters; and wherein the error concealment (130; 380; 500) is configured to obtain the time domain excitation signal on the basis of the audio frame encoded in the frequency domain representation preceding a lost audio frame.