mhurhangee/patent-ind-claim-en huggingface dataset:
A liquid agricultural composition comprising - at least one of a nitrification inhibitor, a urease inhibitor or a mixture thereof; - an organophosphate solvent of formula (VIII): wherein R 1 , R 2 and R 3 , are each independently chosen from H, a C 1 -C 16 alkyl group, a C 1 -C 16 alkenyl group, a C 1 -C 16 alkoxyalkyl group, a C 7 -C 30 alkylarylalkyl group, a C 7 -C 30 arylalkyl group, or an aryl group; provided that at least one of R 1 , R 2 or R 3 is not H; and wherein at least one co-solvent is present, which comprises at least one dioxolane compound of formula (III): wherein R 6 and R 7 individually comprises a hydrogen, an alkyl group, an alkenyl group, or a phenyl group, wherein n is an integer of from 1 to 10. - at least one of a nitrification inhibitor, a urease inhibitor or a mixture thereof; - an organophosphate solvent of formula (VIII): wherein R 1 , R 2 and R 3 , are each independently chosen from H, a C 1 -C 16 alkyl group, a C 1 -C 16 alkenyl group, a C 1 -C 16 alkoxyalkyl group, a C 7 -C 30 alkylarylalkyl group, a C 7 -C 30 arylalkyl group, or an aryl group; provided that at least one of R 1 , R 2 or R 3 is not H; and wherein at least one co-solvent is present, which comprises at least one dioxolane compound of formula (III): wherein R 6 and R 7 individually comprises a hydrogen, an alkyl group, an alkenyl group, or a phenyl group, wherein n is an integer of from 1 to 10.
A Raman microscopy or Raman microspectrometry apparatus of confocal type comprising: - a laser source suitable for emitting a laser beam at an excitation wavelength A; - a microscope objective suitable for receiving the laser beam and focusing the laser beam in an image plane of the microscope objective , the focused laser beam being intended to illuminate a sample ; - an optical system suitable for collecting a scattering optical beam on the sample; - a filter suitable for receiving the scattering optical beam and separating the scattering optical beam into a Rayleigh scattering beam, on the one side, and a Raman scattering beam , on the other side; and - a detection system comprising a Raman spectrometer suitable for receiving and measuring the Raman scattering beam collected, - a confocal hole positioned between the microscope objective and the Raman spectrometer on the optical path of the Raman scattering beam , wherein the Raman microscopy or Raman microspectrometry apparatus further comprises: - an adaptive optics system positioned on an optical path of the Raman scattering beam upstream of the confocal hole , said adaptive optics system being configured to generate an energy distribution having an elliptical shape inside the confocal hole open wide on the entrance slit of the spectrometer, so as to obtain an energy distribution in the direction of the height of the slit. - a laser source suitable for emitting a laser beam at an excitation wavelength A; - a microscope objective suitable for receiving the laser beam and focusing the laser beam in an image plane of the microscope objective , the focused laser beam being intended to illuminate a sample ; - an optical system suitable for collecting a scattering optical beam on the sample; - a filter suitable for receiving the scattering optical beam and separating the scattering optical beam into a Rayleigh scattering beam, on the one side, and a Raman scattering beam , on the other side; and - a detection system comprising a Raman spectrometer suitable for receiving and measuring the Raman scattering beam collected, - a confocal hole positioned between the microscope objective and the Raman spectrometer on the optical path of the Raman scattering beam , - an adaptive optics system positioned on an optical path of the Raman scattering beam upstream of the confocal hole , said adaptive optics system being configured to generate an energy distribution having an elliptical shape inside the confocal hole open wide on the entrance slit of the spectrometer, so as to obtain an energy distribution in the direction of the height of the slit.
An electrical switch (100; 200) comprising: • a base (110; 210); • a driver (126; 226) that is mounted in the base (110; 210) to rock between two stable positions so as to make or break the contact between a movable contact element and a stationary contact element ; • a compressible element (150; 250) that is adapted both to be inactive relative to the driver (126; 226) so as to leave the driver free to take up one or the other of the two stable positions, and to be received between a bearing surface of the base (110; 210) and the driver (126; 226) and be stressed against the driver (126; 226) so as to force the driver (126; 226) to take up only one of the two stable positions; and • a retaining element (117, 119; 217, 219) that is made integrally with the base (110; 210) and that is adapted to hold the compressible element (150; 250) in its inactive state relative to the driver (126; 226); the electrical switch being characterized in that the retaining element (117, 119; 217, 219) is movable in reversible manner between a retaining position in which it holds the compressible element (150; 250) in its inactive state relative to the driver (126; 226), and a spaced-apart position in which it leaves the compressible element (150; 250) free to extend up to the driver (126; 226) . • a base (110; 210); • a driver (126; 226) that is mounted in the base (110; 210) to rock between two stable positions so as to make or break the contact between a movable contact element and a stationary contact element ; • a compressible element (150; 250) that is adapted both to be inactive relative to the driver (126; 226) so as to leave the driver free to take up one or the other of the two stable positions, and to be received between a bearing surface of the base (110; 210) and the driver (126; 226) and be stressed against the driver (126; 226) so as to force the driver (126; 226) to take up only one of the two stable positions; and • a retaining element (117, 119; 217, 219) that is made integrally with the base (110; 210) and that is adapted to hold the compressible element (150; 250) in its inactive state relative to the driver (126; 226);
An engineered reverse transcription enzyme, comprising an amino acid sequence that is at least 80% identical to SEQ ID NO: 3, wherein said amino acid sequence comprises: a truncation of at least 20 amino acids from the N-terminus relative to SEQ ID NO: 3; and the mutations E69K, L139P, D200N, E302R, T306K, W313F, T330P, L435GorL435K, P448A, D449G, N454K, D524N or D524A, L603W and E607K relative to SEQ ID NO: 3; wherein said engineered reverse transcription enzyme has (a) higher resistance to cell lysate as compared to a reverse transcriptase enzyme consisting of SEQ ID NO: 3; or (b) higher activity in a reaction volume of less than 1 nanoliter as compared to a reverse transcriptase enzyme consisting of SEQ ID NO: 3. a truncation of at least 20 amino acids from the N-terminus relative to SEQ ID NO: 3; and the mutations E69K, L139P, D200N, E302R, T306K, W313F, T330P, L435GorL435K, P448A, D449G, N454K, D524N or D524A, L603W and E607K relative to SEQ ID NO: 3; wherein said engineered reverse transcription enzyme has (a) higher resistance to cell lysate as compared to a reverse transcriptase enzyme consisting of SEQ ID NO: 3; or (b) higher activity in a reaction volume of less than 1 nanoliter as compared to a reverse transcriptase enzyme consisting of SEQ ID NO: 3.
An electronic device, comprising: a body; a circuit board ; and an antenna device configured to transceive a radio signal, wherein the antenna device is mounted to the body and comprises first and second antenna units , wherein each of the first and second antenna units comprises: a dielectric substance ; an antenna chip disposed at the circuit board ; and a pair of feeding portions configured to connect the antenna chip with the dielectric substance , wherein a gap is defined between the dielectric substance and the circuit board , characterized in that the dielectric substance comprises a fixed portion coupled to the circuit board , and recessed portions formed such that that the fixed portion is interposed therebetween, wherein the circuit board comprises a circuit board recessed portion at a region adjacent to an edge of the dielectric substance , and wherein the gap is formed between the circuit board recessed portion and the dielectric substance . a body; a circuit board ; and an antenna device configured to transceive a radio signal, wherein the antenna device is mounted to the body and comprises first and second antenna units , wherein each of the first and second antenna units comprises: a dielectric substance ; an antenna chip disposed at the circuit board ; and a pair of feeding portions configured to connect the antenna chip with the dielectric substance , wherein a gap is defined between the dielectric substance and the circuit board , characterized in that the dielectric substance comprises a fixed portion coupled to the circuit board , and recessed portions formed such that that the fixed portion is interposed therebetween, wherein the circuit board comprises a circuit board recessed portion at a region adjacent to an edge of the dielectric substance , and wherein the gap is formed between the circuit board recessed portion and the dielectric substance . a dielectric substance ; an antenna chip disposed at the circuit board ; and a pair of feeding portions configured to connect the antenna chip with the dielectric substance , wherein a gap is defined between the dielectric substance and the circuit board , characterized in that the dielectric substance comprises a fixed portion coupled to the circuit board , and recessed portions formed such that that the fixed portion is interposed therebetween, wherein the circuit board comprises a circuit board recessed portion at a region adjacent to an edge of the dielectric substance , and wherein the gap is formed between the circuit board recessed portion and the dielectric substance .
An RFID antenna comprising an elongated structure existing along an axis and including twin feed lines of electrically conductive material, the feed lines being in a common plane and being generally uniformly laterally spaced from one another at areas along a length of the antenna, and a plurality of radiating perturbations associated with the feed lines at a plurality of locations spaced along the feed lines , wherein the elongated structure is long compared to a signal wavelength at an RFID design frequency; the feed lines are ribbon-like, and at each location, each feed line has a perturbation , the perturbations being spaced about one wavelength at the RFID design frequency; wherein said perturbations are branch radiators in electrical communication with their respective feed line , wherein said branch radiators are disposed at angles with respect to the axis, and wherein alternate pairs of said branch radiators have a positive angle with respect to the axis and intervening pairs of branch radiators have a negative angle with respect to the axis.
A light device of a vehicle, comprising: a light emitting diode module emitting light; and a light guide plate having a first side and having a second side, substantially perpendicular to the first side, the light guide plate has a plane shape, the light guide plate including at least one concave portion, wherein the light guide plate is formed in a horseshoe shape having a predetermined width, wherein an internal side of the horseshoe shape is defined by the first side, wherein the incident light is emitted from the second side, characterized in that the concave portion is formed by the first side, the light emitting diode module is installed on the concave portion, and light emitted from the light emitting diode module is incident on the first side. a light emitting diode module emitting light; and a light guide plate having a first side and having a second side, substantially perpendicular to the first side, the light guide plate has a plane shape, the light guide plate including at least one concave portion, wherein the light guide plate is formed in a horseshoe shape having a predetermined width, wherein an internal side of the horseshoe shape is defined by the first side, wherein the incident light is emitted from the second side, characterized in that the concave portion is formed by the first side, the light emitting diode module is installed on the concave portion, and light emitted from the light emitting diode module is incident on the first side.
A base station, comprising: a transceiver module , configured to send configuration information to a terminal, wherein the configuration information comprises symbol quantity information, and the symbol quantity information is used to indicate a quantity of symbols that are used when the base station performs data exchange with the terminal, wherein the transceiver module is further configured to: send data to the terminal in unit of a symbol by using a symbol physical downlink control channel, Sym-PDCCH, and a physical downlink shared channel, PDSCH, wherein the data occupies m symbols in a time domain, and m is the quantity that is indicated in the configuration information and that is of symbols that are used, the Sym-PDCCH occupies one or more symbols in a channel occupied by the PDSCH, the Sym-PDCCH includes modulation and coding scheme, MCS, control information of at least one frequency band, and the Sym-PDCCH is used to schedule the PDSCH corresponding to the quantity of symbols that are used; and a processing module , configured to: control the transceiver module to send the configuration information, and control the transceiver module to send the data to the terminal in unit of a symbol. a transceiver module , configured to send configuration information to a terminal, wherein the configuration information comprises symbol quantity information, and the symbol quantity information is used to indicate a quantity of symbols that are used when the base station performs data exchange with the terminal, wherein the transceiver module is further configured to: send data to the terminal in unit of a symbol by using a symbol physical downlink control channel, Sym-PDCCH, and a physical downlink shared channel, PDSCH, wherein the data occupies m symbols in a time domain, and m is the quantity that is indicated in the configuration information and that is of symbols that are used, the Sym-PDCCH occupies one or more symbols in a channel occupied by the PDSCH, the Sym-PDCCH includes modulation and coding scheme, MCS, control information of at least one frequency band, and the Sym-PDCCH is used to schedule the PDSCH corresponding to the quantity of symbols that are used; and a processing module , configured to: control the transceiver module to send the configuration information, and control the transceiver module to send the data to the terminal in unit of a symbol.
A method for improving the rollability of tortillas comprising a) adding a maltogenic alpha-amylase (EC 3.2.1.133) and a beta amylase (EC 3.2.1.2) to a corn flour or to a dough comprising a corn flour; b) making the dough; and c) making tortillas from the dough, wherein the maltogenic alpha-amylase has at least 70% identity with SEQ ID NO:1. a) adding a maltogenic alpha-amylase (EC 3.2.1.133) and a beta amylase (EC 3.2.1.2) to a corn flour or to a dough comprising a corn flour; b) making the dough; and c) making tortillas from the dough,
An apparatus for evaluating a tubular, the apparatus comprising: an electromagnetic coupling device comprising a coil, a magnet, and a magnetic shield, the electromagnetic coupling device being configured to be conveyed into the tubular and coupling acoustic energy within the tubular; wherein the magnetic shield comprises a non-conductive soft magnetic material having a high saturation flux density and low RF losses that shields the magnet from a radio frequency (RF) field of the coil and boosts a magnetic field at a surface of the tubular by concentrating RF flux. an electromagnetic coupling device comprising a coil, a magnet, and a magnetic shield, the electromagnetic coupling device being configured to be conveyed into the tubular and coupling acoustic energy within the tubular; wherein the magnetic shield comprises a non-conductive soft magnetic material having a high saturation flux density and low RF losses that shields the magnet from a radio frequency (RF) field of the coil and boosts a magnetic field at a surface of the tubular by concentrating RF flux.
A process for manufacturing a heat resistant electronic component, comprising: obtaining ceramic thermal insulation material containing lithium molybdate Li 2 MoO 4 , in a mouldable form; optionally mixing the ceramic thermal insulation material with at least one additive; covering an electronic component with the material; shaping the material covering the electronic component into a desired form; and drying the desired form at a temperature of from 20°C to 120°C. obtaining ceramic thermal insulation material containing lithium molybdate Li 2 MoO 4 , in a mouldable form; optionally mixing the ceramic thermal insulation material with at least one additive; covering an electronic component with the material; shaping the material covering the electronic component into a desired form; and drying the desired form at a temperature of from 20°C to 120°C.
A cup comprising: a bottom and a side wall wherein the side wall comprises a first layer , wherein the first layer consists of cellulose hydrate, wherein the first layer is coated with a primer material , wherein the side wall further comprises a second layer , wherein the first layer and the second layer are bonded together by the primer material , wherein the second layer comprises cellulose hydrate, paper, cardboard, pulp, fiber, starch or a mixture thereof, wherein the side wall of the cup is impermeable to water, wherein the first layer is the inner layer of the cup and the second layer is the outer layer of the cup, and wherein the cup is compostable and/or fully biodegradable, characterized in that the cup consists of only plant-based material. a bottom and a side wall wherein the side wall comprises a first layer , wherein the first layer consists of cellulose hydrate, wherein the first layer is coated with a primer material , wherein the side wall further comprises a second layer , wherein the first layer and the second layer are bonded together by the primer material , wherein the second layer comprises cellulose hydrate, paper, cardboard, pulp, fiber, starch or a mixture thereof, wherein the side wall of the cup is impermeable to water, wherein the first layer is the inner layer of the cup and the second layer is the outer layer of the cup, and wherein the cup is compostable and/or fully biodegradable, characterized in that the cup consists of only plant-based material. wherein the side wall comprises a first layer , wherein the first layer consists of cellulose hydrate, wherein the first layer is coated with a primer material , wherein the side wall further comprises a second layer , wherein the first layer and the second layer are bonded together by the primer material , wherein the second layer comprises cellulose hydrate, paper, cardboard, pulp, fiber, starch or a mixture thereof, wherein the side wall of the cup is impermeable to water, wherein the first layer is the inner layer of the cup and the second layer is the outer layer of the cup, and wherein the cup is compostable and/or fully biodegradable,
A method of printing three-dimensional object comprising: iteratively applying individual polymeric build material layers including polymer particles having a D50 particle size from about 2 μm to about 150 μm; based on a three-dimensional object model, iteratively and selectively dispensing a fusing agent onto individual build material layers, wherein the fusing agent comprises an aqueous liquid vehicle including water and an organic co solvent, a radiation absorber to generate heat from absorbed electromagnetic radiation, and a carbamide-containing compound; wherein the carbamide-containing compound includes urea or a bi-urea and is present in the fusing agent at from about 4 wt% to about 12 wt%; and iteratively exposing the individual polymeric build material layers with the fusing agent dispensed therewith to electromagnetic radiation to selectively fuse polymer particles of the polymeric build material in contact with the radiation absorber and to form a fused three-dimensional object is formed; wherein the D50 particle size is measured by laser diffraction. based on a three-dimensional object model, iteratively and selectively dispensing a fusing agent onto individual build material layers, wherein the fusing agent comprises an aqueous liquid vehicle including water and an organic co solvent, a radiation absorber to generate heat from absorbed electromagnetic radiation, and a carbamide-containing compound; wherein the carbamide-containing compound includes urea or a bi-urea and is present in the fusing agent at from about 4 wt% to about 12 wt%; and iteratively exposing the individual polymeric build material layers with the fusing agent dispensed therewith to electromagnetic radiation to selectively fuse polymer particles of the polymeric build material in contact with the radiation absorber and to form a fused three-dimensional object is formed; wherein the D50 particle size is measured by laser diffraction.
A sink comprising a tap fitted thereto, and a device for resisting rotation of the tap that has been fitted to the sink, the device comprising: an engagement formation engaging with a part of the tap; a body ; and at least one distal edge , wherein the engagement formation further comprises an attachment means for securing the engagement formation and therefore the device to the part of the tap; the attachment means comprises one or more channels and one or more screws , each screw sits within the respective channel , wherein each screw comprises an engagement surface formed at its front end for biting into the part of a tap while the engagement portion of the device engages with the tap, wherein the sink comprises a downwardly depending part remote to the tap and the at least one distal edge contacts the downwardly depending part of the sink for resisting rotation of the tap with respect to the sink while the attachment means secures the device to the tap by means of the engagement surface formed at the front end of the screw biting into the part of a tap. an engagement formation engaging with a part of the tap; a body ; and at least one distal edge , wherein the engagement formation further comprises an attachment means for securing the engagement formation and therefore the device to the part of the tap; the attachment means comprises one or more channels and one or more screws , each screw sits within the respective channel , wherein each screw comprises an engagement surface formed at its front end for biting into the part of a tap while the engagement portion of the device engages with the tap, wherein the sink comprises a downwardly depending part remote to the tap and the at least one distal edge contacts the downwardly depending part of the sink for resisting rotation of the tap with respect to the sink while the attachment means secures the device to the tap by means of the engagement surface formed at the front end of the screw biting into the part of a tap.