mhurhangee/ep-ind-claims huggingface dataset:
Use of a coating composition for food products, said composition being a solution of shellac in an alcohol, said composition comprising: - between 1% and 35% by weight in shellac; - between 0 % and 50 % by weight in terpene(s); - between 15 % and 99 % by weight in a solvent chosen from alcohols; and - between 0,1 and 10% by weight of base. for the application of between 1 and 10 litres of said composition per ton of food product, preferably between 2 and 5 liters. - between 1% and 35% by weight in shellac; - between 0 % and 50 % by weight in terpene(s); - between 15 % and 99 % by weight in a solvent chosen from alcohols; and - between 0,1 and 10% by weight of base.
Method for detecting an auto-ignition of a fuel/air mixture in a cylinder space of an internal combustion engine having at least a first cylinder and another cylinder which are connected to a crankshaft, wherein partial segment times of the first cylinder are measured, wherein partial segment times of the at least one other cylinder are measured, and a reference feature for the auto-ignition is formed by a comparison of partial segment times of the first cylinder with partial segment times of the at least one other cylinder, and subsequently a signal for the detection of the auto-ignition is generated as a function of the comparison, characterized in that the reference feature is formed from the quotient of a mean value subtracted from the partial segment time of the first cylinder and a function of the partial segment time of the first cylinder; wherein the mean value of the partial segment times of the at least one other cylinder is calculated over the m preceding cylinders and the m following cylinders, wherein the first cylinder is excluded from the mean value calculation, wherein the reference feature is defined for m cylinders of an internal combustion engine by means of the following formula: Reference feature n = partial segment time n − 1 / 2 * m − 1 * ∑ i = n − m + 1,..., n − 1, n + 1,..., n + m − 1 partial segment time _ i) / partial segment time _ n 3, where n corresponds to the considered partial segment time of the first cylinder, and m relates to the number of all the cylinders of the internal combustion engine.
An airbag patch cloth for attachment to a body cloth of an airbag, wherein the airbag patch cloth is a woven fabric, and characterised in that, in the woven fabric, at least one of dynamic tear properties P x and Py represented by the following formulas is 0.8 or more: P x = E / T x × F x × 1000 P y = E / T y × F y × 1000 where E is a kinetic energy in J of a block and blade in the dynamic tear test performance standard level 3 described in JIS T 8050, Tx is an average value in mm of a warp direction tear length in the dynamic tear test performance standard level 3 described in JIS T 8050, F x is a fineness in dtex of a warp constituting the woven fabric, Ty is an average value in mm of a weft direction tear length in the dynamic tear test performance standard level 3 described in JIS T 8050, and F y is a fineness in dtex of a weft constituting the woven fabric, wherein in the airbag patch cloth, a ratio of a warp cover factor CF x and a weft cover factor CF y represented by the following formulas, when the smaller of CF x and CF y is divided by the larger, is 0.30 to 0.80: CF x = D x × √ F x CF y = D y × √ F y where D x is a warp yarn number) per 2.54 cm, F x is a fineness in dtex of the warp constituting the woven fabric, D y is a weft yarn number per 2.54 cm, and F y is a fineness in dtex of the weft constituting the woven fabric, and wherein a sum of a warp cover factor CF x and a weft cover factor C F y of the airbag patch cloth is 1500 to 2200. the airbag patch cloth is a woven fabric, and characterised in that, in the woven fabric, at least one of dynamic tear properties P x and Py represented by the following formulas is 0.8 or more: P x = E / T x × F x × 1000 P y = E / T y × F y × 1000 where E is a kinetic energy in J of a block and blade in the dynamic tear test performance standard level 3 described in JIS T 8050, Tx is an average value in mm of a warp direction tear length in the dynamic tear test performance standard level 3 described in JIS T 8050, F x is a fineness in dtex of a warp constituting the woven fabric, Ty is an average value in mm of a weft direction tear length in the dynamic tear test performance standard level 3 described in JIS T 8050, and F y is a fineness in dtex of a weft constituting the woven fabric, wherein in the airbag patch cloth, a ratio of a warp cover factor CF x and a weft cover factor CF y represented by the following formulas, when the smaller of CF x and CF y is divided by the larger, is 0.30 to 0.80: CF x = D x × √ F x CF y = D y × √ F y where D x is a warp yarn number) per 2.54 cm, F x is a fineness in dtex of the warp constituting the woven fabric, D y is a weft yarn number per 2.54 cm, and F y is a fineness in dtex of the weft constituting the woven fabric, and wherein a sum of a warp cover factor CF x and a weft cover factor C F y of the airbag patch cloth is 1500 to 2200.
A rigid thermal insulation and/or buoyancy material characterized in that it is constituted by a mixture of: a) a matrix of a homogeneous mixture of cured elastomer polymer and a liquid insulating plasticizer compound, said insulating plasticizer compound being selected from compounds derived from mineral oil, preferably hydrocarbons, and compounds derived from vegetable oils, preferably esters of vegetable oils, said insulating plasticizer compound not being a material of the type that changes phase at a temperature lying in the range -10°C to +150°C, the mass proportion of said plasticizer compound in said matrix being at least 60%; and b) hollow beads, preferably glass microbeads, dispersed within a said matrix of said homogeneous mixture of said polymer and said insulating plasticizer compound, at a proportion by volume of 40 to 65% of the total volume of the mixture of said beads with said matrix. a) a matrix of a homogeneous mixture of cured elastomer polymer and a liquid insulating plasticizer compound, said insulating plasticizer compound being selected from compounds derived from mineral oil, preferably hydrocarbons, and compounds derived from vegetable oils, preferably esters of vegetable oils, said insulating plasticizer compound not being a material of the type that changes phase at a temperature lying in the range -10°C to +150°C, the mass proportion of said plasticizer compound in said matrix being at least 60%; and b) hollow beads, preferably glass microbeads, dispersed within a said matrix of said homogeneous mixture of said polymer and said insulating plasticizer compound, at a proportion by volume of 40 to 65% of the total volume of the mixture of said beads with said matrix.
A diagnostic composition comprising an antibody binding to Claudin 18 splice variant 2 (CLDN18.2), or an antigen-binding fragment thereof, wherein the antibody comprises an antibody heavy chain comprising: a CDR1 sequence according to SEQ ID NO: 8, a CDR2 sequence according to SEQ ID NO: 9, and a CDR3 sequence according to SEQ ID NO: 10, and an antibody light chain comprising: a CDR1 sequence according to SEQ ID NO: 12, a CDR2 sequence according to SEQ ID NO: 13, and a CDR3 sequence according to SEQ ID NO: 14, or an antibody heavy chain comprising: a CDR1 sequence according to SEQ ID NO: 16, a CDR2 sequence according to SEQ ID NO: 17, and a CDR3 sequence according to SEQ ID NO: 18, and an antibody light chain comprising: a CDR1 sequence according to SEQ ID NO: 20, a CDR2 sequence according to SEQ ID NO: 21, and a CDR3 sequence according to SEQ ID NO: 22. an antibody heavy chain comprising: a CDR1 sequence according to SEQ ID NO: 8, a CDR2 sequence according to SEQ ID NO: 9, and a CDR3 sequence according to SEQ ID NO: 10, and an antibody light chain comprising: a CDR1 sequence according to SEQ ID NO: 12, a CDR2 sequence according to SEQ ID NO: 13, and a CDR3 sequence according to SEQ ID NO: 14, or a CDR1 sequence according to SEQ ID NO: 8, a CDR2 sequence according to SEQ ID NO: 9, and a CDR3 sequence according to SEQ ID NO: 10, and an antibody light chain comprising: a CDR1 sequence according to SEQ ID NO: 12, a CDR2 sequence according to SEQ ID NO: 13, and a CDR3 sequence according to SEQ ID NO: 14, or a CDR1 sequence according to SEQ ID NO: 12, a CDR2 sequence according to SEQ ID NO: 13, and a CDR3 sequence according to SEQ ID NO: 14, an antibody heavy chain comprising: a CDR1 sequence according to SEQ ID NO: 16, a CDR2 sequence according to SEQ ID NO: 17, and a CDR3 sequence according to SEQ ID NO: 18, and an antibody light chain comprising: a CDR1 sequence according to SEQ ID NO: 20, a CDR2 sequence according to SEQ ID NO: 21, and a CDR3 sequence according to SEQ ID NO: 22. a CDR1 sequence according to SEQ ID NO: 16, a CDR2 sequence according to SEQ ID NO: 17, and a CDR3 sequence according to SEQ ID NO: 18, and an antibody light chain comprising: a CDR1 sequence according to SEQ ID NO: 20, a CDR2 sequence according to SEQ ID NO: 21, and a CDR3 sequence according to SEQ ID NO: 22. a CDR1 sequence according to SEQ ID NO: 20, a CDR2 sequence according to SEQ ID NO: 21, and a CDR3 sequence according to SEQ ID NO: 22.
A wearable heart sound detection system, said system including an acoustic sensing device for collecting heart sound signals of user's body, performing signal amplification, filtering, digitization and other preprocessing steps on said collected heart sound signals, and outputting preprocessed heart sound signals; an external computing electronic device communicatively coupled to said acoustic sensing device for acquiring said preprocessed heart sound signals; and a cloud database communicatively coupled to said external computing electronic device; wherein said acoustic sensing device includes a capacitive sound sensor, a piezoelectric sound sensor and a circuit assembly, said circuit assembly is respectively electrically connected with said capacitive sound sensor and said piezoelectric sound sensor; wherein said circuit assembly, said capacitive sound sensor and said piezoelectric sound sensor are integrated on a flexible substrate; wherein said circuit assembly, said capacitive sound sensor and said piezoelectric sound sensor are arranged as follows: said capacitive sound sensor been disposed on a surface of said circuit assembly; a soundproof ring been arranged on said surface and enclosed to encapsulate said capacitive sound sensor and said circuit assembly to form a resonant cavity; said piezoelectric sound sensor been disposed on a side of said soundproof ring not in contact with said circuit assembly, wherein said piezoelectric sound sensor is attached to said user's skin near heart. wherein said acoustic sensing device includes a capacitive sound sensor, a piezoelectric sound sensor and a circuit assembly, said circuit assembly is respectively electrically connected with said capacitive sound sensor and said piezoelectric sound sensor; wherein said circuit assembly, said capacitive sound sensor and said piezoelectric sound sensor are integrated on a flexible substrate; wherein said circuit assembly, said capacitive sound sensor and said piezoelectric sound sensor are arranged as follows: said capacitive sound sensor been disposed on a surface of said circuit assembly; a soundproof ring been arranged on said surface and enclosed to encapsulate said capacitive sound sensor and said circuit assembly to form a resonant cavity; said piezoelectric sound sensor been disposed on a side of said soundproof ring not in contact with said circuit assembly, wherein said piezoelectric sound sensor is attached to said user's skin near heart. said capacitive sound sensor been disposed on a surface of said circuit assembly; a soundproof ring been arranged on said surface and enclosed to encapsulate said capacitive sound sensor and said circuit assembly to form a resonant cavity; said piezoelectric sound sensor been disposed on a side of said soundproof ring not in contact with said circuit assembly, wherein said piezoelectric sound sensor is attached to said user's skin near heart.
Electronic tripping device for an electrical, multipolar line protection apparatus, of the circuit-breaker type, comprising a current measuring unit and an electrical current measurement processing unit, said measuring unit and said processing unit extending substantially along a reference direction, characterised in that said measuring unit and said processing unit consist of three-pole units connected to one another, and in that the tripping device comprises means for adding a neutral line in front of or behind said measuring units and/or said processing unit according to the reference direction.
A method for conjugating a peptide immunogen via a reactive group of an amino acid residue of the peptide immunogen to a protein/polypeptide carrier having one or more functional groups, the method comprising the steps of: (a) derivatizing one or more of the functional groups of the protein/polypeptide carrier to generate a derivatized carrier with reactive sites, wherein the carrier is selected from the group consisting of CRM 197, Streptococcus pyogenes ORF1224, Streptococcus pyogenes ORF1664, Streptococcus pyogenes ORF2452, and Chlamydia pneumoniae ORF T858; (b) reacting the derivatized protein/polypeptide carrier of step (a) with a reactive group of an amino acid of the peptide immunogen under reaction conditions such that the peptide immunogen is conjugated to the derivatized protein/polypeptide carrier via the functional groups; and (c) further reacting the conjugate with N-acetylcysteamine to inactivate free, reactive unreacted functional groups on the derivatized protein/polypeptide carrier, thereby preserving the functionality of the carrier, such that it retains its ability to elicit the desired immune responses against the peptide immunogen that would otherwise not occur without a carrier, wherein the conjugate has the formula: wherein C is the protein/polypeptide carrier, X d is a derivatized functional group of the protein/polypeptide carrier, P is the peptide immunogen, R is a capping molecule, n is an integer greater than 0, but less than or equal to 85, and p is an integer greater than 0, but less than or equal to 85. (a) derivatizing one or more of the functional groups of the protein/polypeptide carrier to generate a derivatized carrier with reactive sites, wherein the carrier is selected from the group consisting of CRM 197, Streptococcus pyogenes ORF1224, Streptococcus pyogenes ORF1664, Streptococcus pyogenes ORF2452, and Chlamydia pneumoniae ORF T858; (b) reacting the derivatized protein/polypeptide carrier of step (a) with a reactive group of an amino acid of the peptide immunogen under reaction conditions such that the peptide immunogen is conjugated to the derivatized protein/polypeptide carrier via the functional groups; and (c) further reacting the conjugate with N-acetylcysteamine to inactivate free, reactive unreacted functional groups on the derivatized protein/polypeptide carrier, thereby preserving the functionality of the carrier, such that it retains its ability to elicit the desired immune responses against the peptide immunogen that would otherwise not occur without a carrier, wherein the conjugate has the formula: wherein C is the protein/polypeptide carrier, X d is a derivatized functional group of the protein/polypeptide carrier, P is the peptide immunogen, R is a capping molecule, n is an integer greater than 0, but less than or equal to 85, and p is an integer greater than 0, but less than or equal to 85.
A threaded connection for steel pipes comprising a tubular pin and a tubular box, wherein the pin includes, in order from a front end of the pin toward a pipe body of the pin, an annular shoulder surface, an annular sealing surface located adjacent to the shoulder surface of the pin, and a male thread part, the box includes, in order from the pipe body of the box toward the front end of the box, an annular shoulder surface, an annular sealing surface located adjacent to the shoulder surface of the box, and a female thread part, the shoulder surface (12, 22) of each of the pin and the box inclines from a plane perpendicular to a pipe axis in a direction of screwing the pin, a diameter (Dpi) of an inner circumferential edge of the shoulder surface of the pin is smaller than a diameter (Dbi) of an inner circumferential edge of the shoulder surface of the box, and a thickness (tp) of an annular pin shoulder region that appears when the shoulder surface of the pin is projected onto the plane perpendicular to the pipe axis is 60% or more of a wall thickness (t) of the pipe body of the pin, and characterised in that: a thickness (tb) of an annular box shoulder region that appears when the shoulder surface of the box is projected onto the plane perpendicular to the pipe axis is 30% or more and 45% or less of a wall thickness (t) of the pipe body of the pin. the pin includes, in order from a front end of the pin toward a pipe body of the pin, an annular shoulder surface, an annular sealing surface located adjacent to the shoulder surface of the pin, and a male thread part, the box includes, in order from the pipe body of the box toward the front end of the box, an annular shoulder surface, an annular sealing surface located adjacent to the shoulder surface of the box, and a female thread part, the shoulder surface (12, 22) of each of the pin and the box inclines from a plane perpendicular to a pipe axis in a direction of screwing the pin, a diameter (Dpi) of an inner circumferential edge of the shoulder surface of the pin is smaller than a diameter (Dbi) of an inner circumferential edge of the shoulder surface of the box, and a thickness (tp) of an annular pin shoulder region that appears when the shoulder surface of the pin is projected onto the plane perpendicular to the pipe axis is 60% or more of a wall thickness (t) of the pipe body of the pin, and characterised in that: a thickness (tb) of an annular box shoulder region that appears when the shoulder surface of the box is projected onto the plane perpendicular to the pipe axis is 30% or more and 45% or less of a wall thickness (t) of the pipe body of the pin.
A reinforcement for reinforced concrete, comprising a spiral rod with a pitch of between 1 and 10 times a diameter of a cylinder into which the spiral rod is inscribed; wherein a planar cross-section of the rod includes: a central section around a central axis of the rod, and at least two petals connected to the central section and separated from each other by gaps; wherein, for at least two different concentric circles around the central axis of the rod, a sum of angle measures of cross-sections of the petals with a smaller circle is equal or less than a sum of angle measures of cross-sections of the petals with a greater circle; and wherein the entire outside surface formed by at least one petal of the rod is a smooth helical continuous ribbon characterized in that a cross-sectional area of the central section is smaller than a cross-sectional area of at least one of the petals; at least one gap-facing petal surface of at least one gap of the rod has ribs facing the at least one gap, wherein a maximum radial depth of the at least one gap is greater than a maximum height from the gap-facing petal surface of the ribs facing the at least one gap. a spiral rod with a pitch of between 1 and 10 times a diameter of a cylinder into which the spiral rod is inscribed; wherein a planar cross-section of the rod includes: a central section around a central axis of the rod, and at least two petals connected to the central section and separated from each other by gaps; a central section around a central axis of the rod, and at least two petals connected to the central section and separated from each other by gaps; wherein, for at least two different concentric circles around the central axis of the rod, a sum of angle measures of cross-sections of the petals with a smaller circle is equal or less than a sum of angle measures of cross-sections of the petals with a greater circle; and a sum of angle measures of cross-sections of the petals with a smaller circle is equal or less than a sum of angle measures of cross-sections of the petals with a greater circle; wherein the entire outside surface formed by at least one petal of the rod is a smooth helical continuous ribbon characterized in that a cross-sectional area of the central section is smaller than a cross-sectional area of at least one of the petals; at least one gap-facing petal surface of at least one gap of the rod has ribs facing the at least one gap, wherein a maximum radial depth of the at least one gap is greater than a maximum height from the gap-facing petal surface of the ribs facing the at least one gap.
Method for manufacturing preforms from fibre reinforced plastic, wherein, in a first step, continuously supplied fibre layers are reshaped into a predetermined cross section by transverse reshaping in a transverse deflecting unit, wherein the fibre layers are shaped around a shaping core by means of pressing rollers, so that they gradually assume the desired profile shape, wherein, in a second step, the profile created is continuously curved in a specific manner by longitudinal reshaping in a longitudinal reshaping unit and wherein, after the longitudinal reshaping, the finished profiles are divided by a dividing unit into specific sizes, wherein the radius of the longitudinal reshaping in the longitudinal reshaping unit is variable.
A probe, comprising: a measurement light emitting unit configured to emit measurement light toward a subject; an acoustic wave detector configured to detect a photoacoustic wave generated within the subject due to the measurement light; a correction light source configured to emit correction light toward the subject; and a light intensity detector configured to detect reflected light generated by reflection of the correction light, which is emitted toward the subject, from the subject, wherein the correction light source and the light intensity detector are disposed between the measurement light emitting unit and the acoustic wave detector. a measurement light emitting unit configured to emit measurement light toward a subject; an acoustic wave detector configured to detect a photoacoustic wave generated within the subject due to the measurement light; a correction light source configured to emit correction light toward the subject; and a light intensity detector configured to detect reflected light generated by reflection of the correction light, which is emitted toward the subject, from the subject, wherein the correction light source and the light intensity detector are disposed between the measurement light emitting unit and the acoustic wave detector.
Portable spine protector to prevent excessive physiological deflections of a user's spine, where the spine protector comprises a lower attachment structure designed as a hip belt or pelvic belt that can be placed in the user's hip region and where the spine protector comprises an upper attachment structure that can be placed in the user's shoulder or chest region, the lower attachment structure being connected to the upper attachment structure by at least two straps (3, 4), and the at least two straps (3, 4) being connected to the lower attachment structure in front of the user's neutral lateral bending line, the first strap running along the user's waist on the right-hand side diagonally upwards to the user's back and the second strap running along the user's waist on the left-hand side diagonally upwards to the user's back, wherein the first strap is connected to the upper attachment structure in the region of the user's left shoulder or left chest, and wherein the second strap is connected to the upper attachment structure in the region of the user's right shoulder or right chest, so that the two straps (3, 4) cross over in the user's back region, characterised in that the upper attachment structure is designed as chest strap or in that the upper attachment structure has two slings that are connected to one another.