mhurhangee/ep-ind-claims huggingface dataset:
A method of detecting Mycobacterium tuberculosis and other members of the MTB-complex in a sample, the method comprising: - performing an amplifying step comprising contacting the sample with a set of esxJ primers to produce an amplification product if a esxJ nucleic acid is present in the sample; - performing a hybridizing step comprising contacting the amplification product with one or more detectable esxJ probes; and - detecting the presence or absence of the amplification product, wherein the presence of the amplification product is indicative of the presence of MTB in the sample and wherein the absence of the amplification product is indicative of the absence of MTB in the sample; wherein the set of esxJ primers comprises a first primer comprising a first oligonucleotide sequence selected from the group consisting of SEQ ID NOs: 1, 7 and 9, or a complement thereof, and a second primer comprising a second oligonucleotide sequence selected from the group consisting of SEQ ID NOs: 15-17, or a complement thereof; and wherein the detectable esxJ probe comprises a third oligonucleotide sequence SEQ ID NO:30, or the complement thereof. - performing an amplifying step comprising contacting the sample with a set of esxJ primers to produce an amplification product if a esxJ nucleic acid is present in the sample; - performing a hybridizing step comprising contacting the amplification product with one or more detectable esxJ probes; and - detecting the presence or absence of the amplification product, wherein the presence of the amplification product is indicative of the presence of MTB in the sample and wherein the absence of the amplification product is indicative of the absence of MTB in the sample;
A catalyst component for olefin polymerization, comprising magnesium, titanium, a halogen, and an internal electron donor, wherein the internal electron donor comprises a monocarboxylic ester compound and a diether compound, the monocarboxylic ester compound is an aromatic monocarboxylic ester, the diether compound is 1,3-diether, the total amount of the monocarboxylic ester compound and the diether compound is 70-100% by weight, based on an amount of the internal electron donor, a molar ratio of the monocarboxylic ester compound to the diether compound is (0.0035-0.7): 1, and the catalyst component is a product produced from a reaction of a magnesium source comprising sulfur, a titanium source, and the internal electron donor, wherein a molar ratio of sulfur to magnesium in the magnesium source is q: 1, wherein 0<q ≦ 0.5, preferably 0.001<q ≦ 0.2. wherein the internal electron donor comprises a monocarboxylic ester compound and a diether compound, the monocarboxylic ester compound is an aromatic monocarboxylic ester, the diether compound is 1,3-diether, the total amount of the monocarboxylic ester compound and the diether compound is 70-100% by weight, based on an amount of the internal electron donor, a molar ratio of the monocarboxylic ester compound to the diether compound is (0.0035-0.7): 1, and the catalyst component is a product produced from a reaction of a magnesium source comprising sulfur, a titanium source, and the internal electron donor, wherein a molar ratio of sulfur to magnesium in the magnesium source is q: 1, wherein 0<q ≦ 0.5, preferably 0.001<q ≦ 0.2.
A method to enlarge a ship, wherein: • a container ship, conbulker, multipurpose ship, lash ship or another ship with a large open deck is widened, wherein • a front ship section comprising the bow and a rear ship section comprising the stern are separated from a middle ship section comprising at least part of the cargo space, • the front ship section and the middle ship section are moved apart in the longitudinal direction, • the middle ship section is divided in the longitudinal direction into at least two middle ship parts (30, 31), • The middle ship parts (30, 31) are moved apart in the transverse direction out of the ship, • an additional middle part is installed between the moved-apart middle ship parts (30, 31) to form a wider middle ship section, • an additional ship section which widens toward the rear and is installed between a front ship section and the widened middle ship section, • the rear ship section is mounted directly on the rear of the widened middle ship section by welding, wherein the rear ship section is welded with the middle ship section. • a container ship, conbulker, multipurpose ship, lash ship or another ship with a large open deck is widened, wherein • a front ship section comprising the bow and a rear ship section comprising the stern are separated from a middle ship section comprising at least part of the cargo space, • the front ship section and the middle ship section are moved apart in the longitudinal direction, • the middle ship section is divided in the longitudinal direction into at least two middle ship parts (30, 31), • The middle ship parts (30, 31) are moved apart in the transverse direction out of the ship, • an additional middle part is installed between the moved-apart middle ship parts (30, 31) to form a wider middle ship section, • an additional ship section which widens toward the rear and is installed between a front ship section and the widened middle ship section, • the rear ship section is mounted directly on the rear of the widened middle ship section by welding, wherein the rear ship section is welded with the middle ship section.
A multi-functional protease inhibitor comprising a conjugate formed between a cystatin and pepstatin A, or a physiologically acceptable salt, solvate, ester, or amide thereof.
A method of fabricating a light emitting device, the method comprising in this order the following steps: forming a first GaN semiconductor layer on a first substrate; forming a Ta layer in a shape of stripes on the first GaN semiconductor layer; forming a second GaN semiconductor layer on the first GaN semiconductor layer and the Ta layer while forming a plurality of voids in the first GaN semiconductor layer, wherein the second GaN semiconductor layer is formed with a flux of a TMGa of less than 87 mol/min; forming a first compound semiconductor layer, an active layer and a second compound semiconductor layer; attaching a second substrate on the second compound semiconductor layer via a bonding metal; and increasing a volume of the voids by a first heating step of heating the first substrate at a temperature of 900 - 1100°C so that the first substrate is separated from the second GaN semiconductor layer. forming a first GaN semiconductor layer on a first substrate; forming a Ta layer in a shape of stripes on the first GaN semiconductor layer; forming a second GaN semiconductor layer on the first GaN semiconductor layer and the Ta layer while forming a plurality of voids in the first GaN semiconductor layer, wherein the second GaN semiconductor layer is formed with a flux of a TMGa of less than 87 mol/min; forming a first compound semiconductor layer, an active layer and a second compound semiconductor layer; attaching a second substrate on the second compound semiconductor layer via a bonding metal; and increasing a volume of the voids by a first heating step of heating the first substrate at a temperature of 900 - 1100°C so that the first substrate is separated from the second GaN semiconductor layer.
Abrasive particles comprising: shaped abrasive particles each having a sloping sidewall (22, 50, 54, 58), each of the shaped abrasive particles comprising alpha alumina and having a first face and a second face separated by a thickness, t, wherein the shaped abrasive particles have a predetermined geometric shape that substantially replicates the mold cavity used to form the shaped abrasive particle, the shaped abrasive particles further comprising either: a draft angle α between the second face and the sloping sidewall (22, 50, 54, 58), and the draft angle α is between 95 degrees to 130 degrees, or the sloping sidewall (22, 50, 54, 58) having a radius, R, between the first face and the second face and the radius, R, is between 0.5 to 2 times the thickness t. shaped abrasive particles each having a sloping sidewall (22, 50, 54, 58), each of the shaped abrasive particles comprising alpha alumina and having a first face and a second face separated by a thickness, t, wherein the shaped abrasive particles have a predetermined geometric shape that substantially replicates the mold cavity used to form the shaped abrasive particle, the shaped abrasive particles further comprising either: a draft angle α between the second face and the sloping sidewall (22, 50, 54, 58), and the draft angle α is between 95 degrees to 130 degrees, or the sloping sidewall (22, 50, 54, 58) having a radius, R, between the first face and the second face and the radius, R, is between 0.5 to 2 times the thickness t. a draft angle α between the second face and the sloping sidewall (22, 50, 54, 58), and the draft angle α is between 95 degrees to 130 degrees, or the sloping sidewall (22, 50, 54, 58) having a radius, R, between the first face and the second face and the radius, R, is between 0.5 to 2 times the thickness t.
An uplink transmission method, executed by a terminal or a chip in a terminal, comprising: performing measurement in a measurement gap; and determining whether to conduct uplink sending in a period of time, wherein the period of time starts from the end of the measurement gap, and length of the period of time is determined by the terminal based on a communication parameter; wherein the communication parameter is a timing advance of the terminal, and there is a mapping relationship between the timing advance and the length, wherein if a first timing advance is less than a second timing advance, first length corresponding to the first timing advance is not greater than second length corresponding to the second timing advance; wherein the length is a step function of the timing advance, and if TA∈[0, a-x), TL=a; or if TAe[a-x, b-x], TL=b, wherein TA is the timing advance, TL is the length, a=Ns, b=a+Ms, N and M are positive integers, s is half a slot length, one slot length, or one symbol length, and X is a margin. performing measurement in a measurement gap; and determining whether to conduct uplink sending in a period of time, wherein the period of time starts from the end of the measurement gap, and length of the period of time is determined by the terminal based on a communication parameter; wherein the communication parameter is a timing advance of the terminal, and there is a mapping relationship between the timing advance and the length, wherein if a first timing advance is less than a second timing advance, first length corresponding to the first timing advance is not greater than second length corresponding to the second timing advance; wherein the length is a step function of the timing advance, and if TA∈[0, a-x), TL=a; or if TAe[a-x, b-x], TL=b, wherein TA is the timing advance, TL is the length, a=Ns, b=a+Ms, N and M are positive integers, s is half a slot length, one slot length, or one symbol length, and X is a margin.
A seal for a gas turbine engine comprising: a seal formed of a matrix and including hard particles, said matrix having a shear strength of greater than or equal to 1.38 MPa (200 psi) and less than or equal to 13.78 MPa (2000 psi), wherein 30 to 50 percent by volume of the seal is matrix.
Plastic component for an at least partially electrically propelled motor vehicle having a base plate made of a first plastic material; several supporting portions protruding from the base plate, which are configured to support the plastic component on a vehicle component which is to be protected by the plastic component; characterised in that the plastic component has at least one two-dimensional fire protection textile which is arranged between protruding supporting portions and is connected material-fittingly with the base plate. a base plate made of a first plastic material; several supporting portions protruding from the base plate, which are configured to support the plastic component on a vehicle component which is to be protected by the plastic component; characterised in that the plastic component has at least one two-dimensional fire protection textile which is arranged between protruding supporting portions and is connected material-fittingly with the base plate.
A method at an electronic device having a display, the method comprising: displaying a user interface on the display, wherein the user interface includes at least one folder icon for a folder, the folder including at least two applications; determining that at least two applications in the folder have at least one notification and at least one application in the folder has more than one notification and appending, to the folder icon, a badge having a number, wherein the number represents a number of applications in the folder having notifications; receiving an input at the user interface to open a folder associated with the folder icon; determining whether one or multiple applications within the folder have a notification associated therewith; in response to determining that one application has a notification associated therewith, launching the one application associated with the notification directly; and in response to determining that multiple applications have a notification associated therewith, launching an interface for the folder. displaying a user interface on the display, wherein the user interface includes at least one folder icon for a folder, the folder including at least two applications; determining that at least two applications in the folder have at least one notification and at least one application in the folder has more than one notification and appending, to the folder icon, a badge having a number, wherein the number represents a number of applications in the folder having notifications; receiving an input at the user interface to open a folder associated with the folder icon; determining whether one or multiple applications within the folder have a notification associated therewith; in response to determining that one application has a notification associated therewith, launching the one application associated with the notification directly; and in response to determining that multiple applications have a notification associated therewith, launching an interface for the folder.
A bearing comprising: a bearing sleeve with a first portion and a second portion adjacent to the first portion; a bump foil extending along an inner face of the first portion of the bearing sleeve; characterized in that said bearing further comprises: a metal mesh extending along an inner face of the second portion of the bearing sleeve; and a top foil extending along an inner face of the bump foil of the first portion and the metal mesh of the second portion. a bearing sleeve with a first portion and a second portion adjacent to the first portion; a bump foil extending along an inner face of the first portion of the bearing sleeve; characterized in that said bearing further comprises: a metal mesh extending along an inner face of the second portion of the bearing sleeve; and a top foil extending along an inner face of the bump foil of the first portion and the metal mesh of the second portion. a metal mesh extending along an inner face of the second portion of the bearing sleeve; and a top foil extending along an inner face of the bump foil of the first portion and the metal mesh of the second portion.
A method for solid free-form fabrication of a three-dimensional object, comprising: depositing a particulate blend in a defined region, said particulate blend including a calcium phosphate source, a reaction retardant, and a layered double hydroxide; selectively ink-jetting a solubilizing binder (220, 410) onto a predetermined volume of said particulate blend to form a pre-ceramic object in said predetermined volume, wherein said solubilizing binder (220, 410) includes wetting agents, humectants, acidic or basic pH modifiers, and surfactants; and firing said pre-ceramic object to form a ceramic object. depositing a particulate blend in a defined region, said particulate blend including a calcium phosphate source, a reaction retardant, and a layered double hydroxide; selectively ink-jetting a solubilizing binder (220, 410) onto a predetermined volume of said particulate blend to form a pre-ceramic object in said predetermined volume, wherein said solubilizing binder (220, 410) includes wetting agents, humectants, acidic or basic pH modifiers, and surfactants; and firing said pre-ceramic object to form a ceramic object.
A multilayer adsorbent bed for purifying a feed stream comprising CO 2, at least one of N 2, H 2 O, CH 4 and CO, and more than 50 mole% hydrogen comprising: a) a first adsorbent section of an activated carbon layer and occupying a volume fraction of 20 to 50% of the multilayer adsorbent bed, wherein the first adsorbent section is for adsorbing at least one of CO 2 and CH 4; b) a second adsorbent section of a layer of molecular sieve of the faujasite structure type with a Si/Al atomic ratio of from 1.5 to 8.0 and occupying a volume fraction of 10 to 25% of the multilayer adsorbent bed, wherein the second adsorbent section is for adsorbing CO 2; and c) a third adsorbent section of a layer of molecular sieve of the faujasite structure type with a Si/Al atomic ratio of from 1.0 to 1.5 and occupying a volume fraction of 30 to 60% of the multilayer adsorbent bed, wherein the third adsorbent section is for adsorbing at least one of CO and N 2; wherein the second adsorbent section is present between the first adsorbent section and the third adsorbent section. a) a first adsorbent section of an activated carbon layer and occupying a volume fraction of 20 to 50% of the multilayer adsorbent bed, wherein the first adsorbent section is for adsorbing at least one of CO 2 and CH 4; b) a second adsorbent section of a layer of molecular sieve of the faujasite structure type with a Si/Al atomic ratio of from 1.5 to 8.0 and occupying a volume fraction of 10 to 25% of the multilayer adsorbent bed, wherein the second adsorbent section is for adsorbing CO 2; and c) a third adsorbent section of a layer of molecular sieve of the faujasite structure type with a Si/Al atomic ratio of from 1.0 to 1.5 and occupying a volume fraction of 30 to 60% of the multilayer adsorbent bed, wherein the third adsorbent section is for adsorbing at least one of CO and N 2;
A composition comprising a crystalline form of L-ornithine phenylacetate, wherein said crystalline form exhibits an X-ray powder diffraction pattern comprising at least three characteristic peaks, wherein said characteristic peaks are selected from the group consisting of 4.9°±0.2° 2θ, 13.2°±0.2° 2θ, 17.4°±0.2° 2θ, 20.8°±0.2° 2θ and 24.4°±0.2° 2θ.
Floor-side wall termination having a plaster strip and a cover profile which can be connected to the plaster strip, wherein the plaster strip has a wall limb which can be fastened to a wall, a plaster connection limb which protrudes from the wall limb and holders which are distributed over the length of the plaster strip, wherein the wall limb of the plaster strip forms an undercut receiving groove which extends in the longitudinal direction of the plaster strip and into which the holders for fastening the cover profile engage, wherein the holders have resilient latching tongues engaging behind the undercuts of the receiving groove and have undercut latching recesses, into which resilient latching webs of the cover profile lying against the holders engage, characterised in that the holders have, on one side, said latching tongues and, on the other side, said latching recesses.
A mixed-wave permanent magnet motor, comprising a motor shell, a stator and a rotor, wherein, the stator and the rotor are arranged in the motor shell; wherein the stator comprises a plurality of circularly distributed stator cores, and the stator cores are wound with magnetic induction lines passing through the coils at both radial sides thereof; wherein the rotor comprises an outer rotor part, an inner rotor part and a flange; wherein the outer rotor part is arranged outside the cylindrical inner rotor part, a stator zone is formed between the outer rotor part and the inner rotor part, the stator is arranged in the stator zone of the rotor, and the outer rotor part and the inner rotor part are connected by a flange; wherein a plurality of permanent magnet modules is circularly distributed on the inner side of the outer rotor part and the outer side of the inner rotor part, and two adjacent permanent magnet modules have opposite polarity, characterized in that each permanent magnet module comprises a plurality of permanent magnets, wherein the permanent magnets of each permanent magnet module of the inner rotor part are vertically mounted along the outer side of the inner rotor part, and the permanent magnets of each permanent magnet module of the outer rotor part are inclinedly mounted on the inner side of the outer rotor part or the permanent magnets of each permanent magnet module of the inner rotor part are inclinedly mounted on the outer side of the inner rotor part, and the permanent magnets of each permanent magnet module of the outer rotor part are vertically mounted on the inner side of the outer rotor part. wherein the stator comprises a plurality of circularly distributed stator cores, and the stator cores are wound with magnetic induction lines passing through the coils at both radial sides thereof; wherein the rotor comprises an outer rotor part, an inner rotor part and a flange; wherein the outer rotor part is arranged outside the cylindrical inner rotor part, a stator zone is formed between the outer rotor part and the inner rotor part, the stator is arranged in the stator zone of the rotor, and the outer rotor part and the inner rotor part are connected by a flange; wherein a plurality of permanent magnet modules is circularly distributed on the inner side of the outer rotor part and the outer side of the inner rotor part, and two adjacent permanent magnet modules have opposite polarity, characterized in that each permanent magnet module comprises a plurality of permanent magnets, wherein the permanent magnets of each permanent magnet module of the inner rotor part are vertically mounted along the outer side of the inner rotor part, and the permanent magnets of each permanent magnet module of the outer rotor part are inclinedly mounted on the inner side of the outer rotor part or the permanent magnets of each permanent magnet module of the inner rotor part are inclinedly mounted on the outer side of the inner rotor part, and the permanent magnets of each permanent magnet module of the outer rotor part are vertically mounted on the inner side of the outer rotor part.