mhurhangee/ep-ind-claims huggingface dataset:
A kit for identification by real-time PCR of one or more genes associated with antibiotic resistance, wherein the one or more genes are selected from the group consisting of: CMY-2, DHA, MOX, ACC, FOX, and ACT/MIR genes, and wherein the kit comprises: a first primer and probe mix comprising the following primers and probes capable of amplifying the MOX, ACC and FOX genes: GCTGCTCAAGGAGCACAGGAT, CACATTGACATAGGTGTGGTGC, 56-FAM/AGGATGGCA/ZEN/AGGCCCACTATTTCA/3IABkFQ, AACAGCCTCAGCAGCCGGTTA, TTCGCCGCAATCATCCCTAGC, 5HEX/AGCCATTAC/ZEN/GTTCCAGAGTTGCGT/3IABkFQ, GCCGAGGCTTACGGGATCAAG, CAAAGCGCGTAACCGGATTGG, 5TEX615/TCTGCTGAAGTTTRYCGAGGCMAA/3IAbRQSp, GAGAGGATGAYCAGCCACAC, CGCCCATTGTSCAATATTCC, and 5TYE665/TGAGACACGGTCCAGACTCCTACG/3IAbRQSp [SEQ. ID NOS 192-203]; and a second primer and probe mix comprising the following primers and probes capable of amplifying the DHA, ACT/MIR, and CMY-2 genes: AACTTTCACAGGTGTGCTGGGT, CCGTACGCATACTGGCTTTGC, 56-FAM/AAACCGGGC/ZEN/GATATGCGTCTGTAT/3IABkFQ, CTGGGTTCTATAAGTAAAACCTTCACCGG, CTTCCACTGCGGCTGCCAGTT, 5HEX/GATGCCATT/ZEN/GCYCGSGGTGAAAT/3IABkFQ, CCGAAGCCTATGGCGTGAAATCC, GCAATGCCCTGCTGGAGCG, 5TEX615/ATGTTGGCCTGAACCCAGCG/3IAbRQSp, GAGAGGATGAYCAGCCACAC, CGCCCATTGTSCAATATTCC, and 5TYE665/TGAGACACGGTCCAGACTCCTACG/3IAbRQSp [SEQ. ID NOS 204-215]. a first primer and probe mix comprising the following primers and probes capable of amplifying the MOX, ACC and FOX genes: GCTGCTCAAGGAGCACAGGAT, CACATTGACATAGGTGTGGTGC, 56-FAM/AGGATGGCA/ZEN/AGGCCCACTATTTCA/3IABkFQ, AACAGCCTCAGCAGCCGGTTA, TTCGCCGCAATCATCCCTAGC, 5HEX/AGCCATTAC/ZEN/GTTCCAGAGTTGCGT/3IABkFQ, GCCGAGGCTTACGGGATCAAG, CAAAGCGCGTAACCGGATTGG, 5TEX615/TCTGCTGAAGTTTRYCGAGGCMAA/3IAbRQSp, GAGAGGATGAYCAGCCACAC, CGCCCATTGTSCAATATTCC, and 5TYE665/TGAGACACGGTCCAGACTCCTACG/3IAbRQSp [SEQ. ID NOS 192-203]; and a second primer and probe mix comprising the following primers and probes capable of amplifying the DHA, ACT/MIR, and CMY-2 genes: AACTTTCACAGGTGTGCTGGGT, CCGTACGCATACTGGCTTTGC, 56-FAM/AAACCGGGC/ZEN/GATATGCGTCTGTAT/3IABkFQ, CTGGGTTCTATAAGTAAAACCTTCACCGG, CTTCCACTGCGGCTGCCAGTT, 5HEX/GATGCCATT/ZEN/GCYCGSGGTGAAAT/3IABkFQ, CCGAAGCCTATGGCGTGAAATCC, GCAATGCCCTGCTGGAGCG, 5TEX615/ATGTTGGCCTGAACCCAGCG/3IAbRQSp, GAGAGGATGAYCAGCCACAC, CGCCCATTGTSCAATATTCC, and 5TYE665/TGAGACACGGTCCAGACTCCTACG/3IAbRQSp [SEQ. ID NOS 204-215].
A thrust foil bearing, comprising: a base plate provided with a plurality of protrusions and a plurality of recesses, the plurality of protrusions and the plurality of recesses being formed alternately in a first direction in a striped manner, and either one of top surfaces of the plurality of protrusions and bottom surfaces of the plurality of recesses gradually lowering toward one side thereof in the first direction; and a back foil supported by either one of the top surfaces of the plurality of protrusions and the bottom surfaces of the plurality of recesses of the base plate, the either one gradually lowering toward the one side in the first direction.
Articulation hinge of an opening of the hood type for closing the engine compartment on a motor vehicle body, said hinge comprising a fixed part and a movable part, the movable part being mounted to be rotatable about a pivot axis of the fixed part between an open position and a closed position of the hinge, the movable part having a retaining element extending in a projecting manner from said movable part towards the fixed part in the pivot plane of said hinge, the fixed part comprising a complementary retaining element along which the retaining element of the movable part extends in the closed position of the hinge, the retaining element of the movable part being a tab which extends in a radial projecting manner on a distal part of the movable part in the plane pivoting of said movable part relative to the fixed part, the retaining element of the fixed part being a retaining tab provided on its distal part, so as to extend opposite the tab of the movable part, in a plane parallel to the pivoting plane of the movable part relative to said fixed part, characterized in that the retaining tab of the fixed part is constituted by the end of its distal part folded so as to extend perpendicularly relative to the fixed part then again parallel to the latter.
A conductive contact element, wherein the conductive contact element has a front contact portion and a rear contact portion spaced apart from each other at front and rear and respectively configured to be in conductive contact with a suitable conductive contact element, the front contact portion and the rear contact portion have an insertion space in a direction perpendicular to the direction of insertion for the suitable conductive contact element to be inserted therein, wherein the conductive contact element comprises a base body extending in a front-rear direction, a front end of the base body is connected to a first connecting segment inclined upwardly through a first bending segment, a front end of the first connecting segment is connected to a contact segment through a second bending segment, the front contact portion is located on the contact segment, and the rear contact portion is located on the base body or a lower side surface of the first connecting segment, and a front side of a front contact point of the front contact portion is further provided with an insertion guiding surface preventing the conductive contact element and the suitable conductive contact element from butting against each other and becoming stuck during insertion; characterized in that, the front contact portion is an inclined extending segment disposed at a front end of the contact segment and in parallel with the first connecting segment, the front contact point is a lower side surface of the inclined extending segment, and a rear contact point of the rear contact portion is formed by a portion of the lower side surface of the first connecting segment. wherein the conductive contact element comprises a base body extending in a front-rear direction, a front end of the base body is connected to a first connecting segment inclined upwardly through a first bending segment, a front end of the first connecting segment is connected to a contact segment through a second bending segment, the front contact portion is located on the contact segment, and the rear contact portion is located on the base body or a lower side surface of the first connecting segment, and a front side of a front contact point of the front contact portion is further provided with an insertion guiding surface preventing the conductive contact element and the suitable conductive contact element from butting against each other and becoming stuck during insertion; characterized in that, the front contact portion is an inclined extending segment disposed at a front end of the contact segment and in parallel with the first connecting segment, the front contact point is a lower side surface of the inclined extending segment, and a rear contact point of the rear contact portion is formed by a portion of the lower side surface of the first connecting segment.
A method of manufacturing a transparent sesquioxide sintered body comprising: press molding a raw material powder into a predetermined shape, the raw material powder which is press molded being a powder mixture of (i) particles of an oxide of at least one rare earth element selected from the group consisting of Y, Sc and lanthanide elements and having a particle size distribution of the rare earth element oxide particles, or a particle size distribution of secondary particles in the case where the rare earth element oxide particles are aggregated to form secondary particles, in which the particle diameter D 2.5 value at which the cumulative particle amount from the minimum particle size side is 2.5%, based on the total particle amount, is in the range from 180 nm to 2000 nm inclusive, and (ii) Zr oxide particles; and thereafter sintering the press molded body to manufacture a transparent M 2 O 3 type sesquioxide sintered body where M is at least one rare earth element selected from the group consisting of Y, Sc and lanthanide elements. press molding a raw material powder into a predetermined shape, the raw material powder which is press molded being a powder mixture of (i) particles of an oxide of at least one rare earth element selected from the group consisting of Y, Sc and lanthanide elements and having a particle size distribution of the rare earth element oxide particles, or a particle size distribution of secondary particles in the case where the rare earth element oxide particles are aggregated to form secondary particles, in which the particle diameter D 2.5 value at which the cumulative particle amount from the minimum particle size side is 2.5%, based on the total particle amount, is in the range from 180 nm to 2000 nm inclusive, and (ii) Zr oxide particles; and thereafter sintering the press molded body to manufacture a transparent M 2 O 3 type sesquioxide sintered body where M is at least one rare earth element selected from the group consisting of Y, Sc and lanthanide elements.
A method for printing a separated sheet in a printing apparatus, comprising the following steps: - providing a separated sheet on a support surface of a feed device; - transferring the separated sheet from the feed device to a rotatably mounted sheet transport device, wherein the separated sheet is thereby arranged and held on one of a plurality of working surfaces in the region of a circumferential surface of the sheet transport device; - bringing the temperature of the separated sheet to a processing temperature by means of a heating device; - transferring the separated sheet into a printing position by means of rotating the sheet transport device; - printing onto the separated sheet by means of a printing device, wherein the sheet transport device remains in a non-rotating rest position during printing; - transferring the separated sheet out of the printing position by means of rotating the sheet transport device and - releasing the separated sheet from the sheet transport device. - providing a separated sheet on a support surface of a feed device; - transferring the separated sheet from the feed device to a rotatably mounted sheet transport device, wherein the separated sheet is thereby arranged and held on one of a plurality of working surfaces in the region of a circumferential surface of the sheet transport device; - bringing the temperature of the separated sheet to a processing temperature by means of a heating device; - transferring the separated sheet into a printing position by means of rotating the sheet transport device; - printing onto the separated sheet by means of a printing device, wherein the sheet transport device remains in a non-rotating rest position during printing; - transferring the separated sheet out of the printing position by means of rotating the sheet transport device and - releasing the separated sheet from the sheet transport device.
A plastic recycling method for processing plastic waste, comprising the steps of: providing a plastic waste mixture stream which on the one hand has a variable proportion of 2D material and a variable proportion of 3D material and on the other hand has an inhomogeneous density distribution, wherein the proportions vary over time; jointly washing both proportions of the plastic waste mixture stream; jointly comminuting both proportions of the plastic waste mixture stream while supplying a cleaning fluid; density-based separation of the plastic waste mixture stream into at least two fractions, wherein the separation takes place as a function of a predeterminable density separation cut; in the case of at least one of the separated fractions: separating the proportion of 2D material and the proportion of 3D material from one another; detecting the proportion of 2D material and/or the proportion of 3D material in the plastic waste mixture stream; regulating a supply parameter of the plastic waste mixture stream as a function of the detected proportion of 2D and/or 3D material. providing a plastic waste mixture stream which on the one hand has a variable proportion of 2D material and a variable proportion of 3D material and on the other hand has an inhomogeneous density distribution, wherein the proportions vary over time; jointly washing both proportions of the plastic waste mixture stream; jointly comminuting both proportions of the plastic waste mixture stream while supplying a cleaning fluid; density-based separation of the plastic waste mixture stream into at least two fractions, wherein the separation takes place as a function of a predeterminable density separation cut; in the case of at least one of the separated fractions: separating the proportion of 2D material and the proportion of 3D material from one another; detecting the proportion of 2D material and/or the proportion of 3D material in the plastic waste mixture stream; regulating a supply parameter of the plastic waste mixture stream as a function of the detected proportion of 2D and/or 3D material.
A reflow condensation soldering machine comprising at least one process chamber and a circulation system for a heat transfer medium, wherein the circulation system comprises a centrifuge and a condensation device for the heat transfer medium.
A non-therapeutic method for killing arthropods, the method comprising: providing a mineral composition to a substrate that arthropods will contact, wherein the mineral composition is not carrying a chemical toxin, wherein the mineral composition comprises an aluminosilicate particulate, wherein the aluminosilicate particulate comprises perlite and the aluminosilicate particulate has a median particle size d 50 of 10 μm or less and wherein contact between the mineral composition and an arthropod results in death of the arthropod. providing a mineral composition to a substrate that arthropods will contact, wherein the mineral composition is not carrying a chemical toxin, wherein the mineral composition comprises an aluminosilicate particulate, wherein the aluminosilicate particulate comprises perlite and the aluminosilicate particulate has a median particle size d 50 of 10 μm or less and wherein contact between the mineral composition and an arthropod results in death of the arthropod.
A two-component adhesive composition, comprising: an isocyanate component comprising an isocyanate prepolymer that is the reaction product of: a polyisocyanate; and an isocyanate reactive component having an average molecular weight greater than 1,000 that comprises a polyester polyol; and a polyol component comprising a polyether polyol having an average molecular weight less than 1,500; and an adhesion promoter, wherein the adhesion promoter is selected from phosphoric acid, polyphosphoric acid, phosphate ester, and mixtures of two or more thereof, wherein the average functionality of the adhesive composition is from 2 to 2.5. an isocyanate component comprising an isocyanate prepolymer that is the reaction product of: a polyisocyanate; and an isocyanate reactive component having an average molecular weight greater than 1,000 that comprises a polyester polyol; and a polyisocyanate; and an isocyanate reactive component having an average molecular weight greater than 1,000 that comprises a polyester polyol; and a polyol component comprising a polyether polyol having an average molecular weight less than 1,500; and an adhesion promoter, wherein the adhesion promoter is selected from phosphoric acid, polyphosphoric acid, phosphate ester, and mixtures of two or more thereof, wherein the average functionality of the adhesive composition is from 2 to 2.5.
A snap button comprising a snap button body (30, 40) and a cap (10, 10A) to be connected to the snap button body (30, 40) with a cloth (1, 2) interposed between them, wherein the snap button body (30, 40) comprises a base (31, 41); a pin (33, 43) to be swaged, which protrudes from an inner surface (31a, 41a) of the base (31, 41), the inner surface (31a, 41a) being placed to face the cloth (1, 2); and an engaging portion (32, 42) provided on an outer surface (31b, 41b) opposite to the inner surface (31a, 41a) of the base (31, 41), wherein the cap (10, 10A) comprises a cap body (11, 11A) including a cap base; and a metal eyelet attached to an inner surface of the cap base, the inner surface being placed to face the cloth (1, 2), wherein the eyelet comprises a cylindrical portion for receiving the pin (33, 43) which has pierced the cloth (1, 2) and swaging the pin (33, 43) on the inner surface of the cap base, and wherein the snap button body (30, 40) and the cap body (11, 11 A) are made of resin. wherein the snap button body (30, 40) comprises a base (31, 41); a pin (33, 43) to be swaged, which protrudes from an inner surface (31a, 41a) of the base (31, 41), the inner surface (31a, 41a) being placed to face the cloth (1, 2); and an engaging portion (32, 42) provided on an outer surface (31b, 41b) opposite to the inner surface (31a, 41a) of the base (31, 41), wherein the cap (10, 10A) comprises a cap body (11, 11A) including a cap base; and a metal eyelet attached to an inner surface of the cap base, the inner surface being placed to face the cloth (1, 2), wherein the eyelet comprises a cylindrical portion for receiving the pin (33, 43) which has pierced the cloth (1, 2) and swaging the pin (33, 43) on the inner surface of the cap base, and wherein the snap button body (30, 40) and the cap body (11, 11 A) are made of resin.
A method of assessing a function of a sensor, the method comprising: installing a sensor in a sump of a fuel dispensing system, such that the sensor extends downwardly into the sump to monitor for fluid infiltration into the sump; wherein the sensor is located in a tank defining a tank chamber, the sump formed at the bottom of the tank chamber; characterized by: after installing and in absence of the presence of a threshold of fluid in the sump to actuate the sensor, assessing the function of the sensor without physically accessing the sump, determining that the sensor requires manual inspection by an operator based on assessing the function of the sensor; accessing the sump from above grade level; and retrieving the sensor without physically entering the tank chamber. after installing and in absence of the presence of a threshold of fluid in the sump to actuate the sensor, assessing the function of the sensor without physically accessing the sump, determining that the sensor requires manual inspection by an operator based on assessing the function of the sensor; accessing the sump from above grade level; and retrieving the sensor without physically entering the tank chamber.
Polymeric phenolic compound comprising at least units of formula: in which R represents a hydrogen atom or a linear or branched alkyl group comprising from 1 to 20 carbon atoms and optionally comprising heteroatoms, m is between 6 and 15 and n is between 5 and 22.
The cosmetic use as a skin refreshing agent of the combination of at least one associative nonionic polyether polyurethane and at least one cyclohexanol derivative, where the associative nonionic polyether polyurethane is in the form of a triblock including two lipophilic hydrocarbon-based chains containing from 6 to 30 carbon atoms, separated by a hydrophilic block, whose hydrophilic block is a polyoxyethylenated chain including 50 to 1000 oxyethylenated groups, and wherein the cyclohexanol derivative is chosen from those having the formula: in which R denotes a hydrogen atom; a linear or branched C 1 -C 5 alkyl group, a linear or branched C 1 -C 5 alkanediol group; a linear or branched C 1 -C 5 carboxyhydroxyalkyl group, and R 1 denotes a hydrogen atom; a linear or branched C 1 -C 5 alkyl group. R denotes a hydrogen atom; a linear or branched C 1 -C 5 alkyl group, a linear or branched C 1 -C 5 alkanediol group; a linear or branched C 1 -C 5 carboxyhydroxyalkyl group, and R 1 denotes a hydrogen atom; a linear or branched C 1 -C 5 alkyl group.
A method of wireless communications by a base station, BS, comprising: configuring a user equipment, UE, that is capable of MIMO with different parameters for periodic and aperiodic channel state information, CSI, reporting, wherein the different parameters indicate at least one of what resources to measure or what information to report; and receiving periodic and aperiodic CSI reporting from the UE according to the configuration, wherein the configuring comprises: configuring the UE to measure and report CSI aperiodically for a first set of antenna ports; and configuring the UE to measure and report CSI periodically for a second set of antenna ports, wherein the second set of antenna ports comprises a subset of the first set of antenna ports. configuring a user equipment, UE, that is capable of MIMO with different parameters for periodic and aperiodic channel state information, CSI, reporting, wherein the different parameters indicate at least one of what resources to measure or what information to report; and receiving periodic and aperiodic CSI reporting from the UE according to the configuration, wherein the configuring comprises: configuring the UE to measure and report CSI aperiodically for a first set of antenna ports; and configuring the UE to measure and report CSI periodically for a second set of antenna ports, wherein the second set of antenna ports comprises a subset of the first set of antenna ports. configuring the UE to measure and report CSI aperiodically for a first set of antenna ports; and configuring the UE to measure and report CSI periodically for a second set of antenna ports, wherein the second set of antenna ports comprises a subset of the first set of antenna ports.
A surgical port assembly for use with surgical instruments, the surgical port assembly comprising: a body including an exterior surface and an interior surface, the interior surface defining an interior space, the interior space configured to allow a surgical instrument to pass therethrough; and a control interface including a plurality of inflatable members (180a-180i) coupled to the body and inflatable to selectively apply a force to a portion of a shaft of the surgical instrument when the shaft is disposed within the interior space, wherein each of the plurality of inflatable members is independently selectively inflatable to move a distal portion of the surgical instrument to a desired position, whereby at least one of the plurality of inflatable members (180a-180i) includes a friction-enhancing material. a body including an exterior surface and an interior surface, the interior surface defining an interior space, the interior space configured to allow a surgical instrument to pass therethrough; and a control interface including a plurality of inflatable members (180a-180i) coupled to the body and inflatable to selectively apply a force to a portion of a shaft of the surgical instrument when the shaft is disposed within the interior space, wherein each of the plurality of inflatable members is independently selectively inflatable to move a distal portion of the surgical instrument to a desired position, whereby at least one of the plurality of inflatable members (180a-180i) includes a friction-enhancing material.