mhurhangee/patent-ind-claim-en huggingface dataset:
A method, comprising: when a synchronization signal/physical broadcast channel block is outside a synchronization signal/physical broadcast channel block measurement timing configuration window and when a resource allocation of a physical downlink shared channel overlaps with a resource allocation occupied by the synchronization signal block, selecting between reception of the physical downlink shared channel and reception of the synchronization signal block according to defined rules, wherein the selecting comprises determining at least one of whether the synchronization signal/physical broadcast channel block is configured as a resource for L1-reporting, whether a demodulation reference signal of the physical downlink shared channel is quasi-co-located with the synchronization signal/physical broadcast channel block, or whether the time until a next reporting period for L1- reference signal receive power is larger than N synchronization signal/physical broadcast channel periods or X milliseconds. when a synchronization signal/physical broadcast channel block is outside a synchronization signal/physical broadcast channel block measurement timing configuration window and when a resource allocation of a physical downlink shared channel overlaps with a resource allocation occupied by the synchronization signal block, selecting between reception of the physical downlink shared channel and reception of the synchronization signal block according to defined rules, wherein the selecting comprises determining at least one of whether the synchronization signal/physical broadcast channel block is configured as a resource for L1-reporting, whether a demodulation reference signal of the physical downlink shared channel is quasi-co-located with the synchronization signal/physical broadcast channel block, or whether the time until a next reporting period for L1- reference signal receive power is larger than N synchronization signal/physical broadcast channel periods or X milliseconds.
Active compound combination comprising (A) as compound (A) methyl 2-[2-chloro-4-(4-chlorophenoxy)phenyl]-2-hydroxy-3-(1,2,4-triazol-1-yl)propanoate, (B) as compound (B) isoflucypram, and (C) as compound (C) at least one further active compound selected from (2.005) fluopyram, (2.019) pydiflumetofen and (2.060) cyclobutrifluram. (A) as compound (A) methyl 2-[2-chloro-4-(4-chlorophenoxy)phenyl]-2-hydroxy-3-(1,2,4-triazol-1-yl)propanoate, (B) as compound (B) isoflucypram, and (C) as compound (C) at least one further active compound selected from (2.005) fluopyram, (2.019) pydiflumetofen and (2.060) cyclobutrifluram.
A radiation detector comprising: a sensor section having radiation sensors stacked on one another; a dummy absorber with water-equivalent thickness equal to average water-equivalent thickness of one stacked radiation sensor; a dummy absorber driving control section configured to place the dummy absorber at an anterior position in a direction of measurement by the sensor section , with the anterior position corresponding to a position at the line where a particle beam propagates; a sensor section driving control device configured to move the sensor section through a distance equal to average thickness of one stacked radiation sensor, at the line where the particle beam propagates; and a signal-processing unit configured to calculate calibration coefficients to correct variations in sensor-specific output for each radiation sensor, from a second set of measurement results acquired by measuring radiation passing through the sensor section after passing through the dummy absorber , a first set of measurement results acquired when the dummy absorber is removed from the line where the particle beam propagates, and an integrated extraction dose value of the radiation extracted during acquisition of the two sets of measurement results, wherein the integrated extraction dose value is a measure of an energy loss of the particle beam. a sensor section having radiation sensors stacked on one another; a dummy absorber with water-equivalent thickness equal to average water-equivalent thickness of one stacked radiation sensor; a dummy absorber driving control section configured to place the dummy absorber at an anterior position in a direction of measurement by the sensor section , with the anterior position corresponding to a position at the line where a particle beam propagates; a sensor section driving control device configured to move the sensor section through a distance equal to average thickness of one stacked radiation sensor, at the line where the particle beam propagates; and a signal-processing unit configured to calculate calibration coefficients to correct variations in sensor-specific output for each radiation sensor, from a second set of measurement results acquired by measuring radiation passing through the sensor section after passing through the dummy absorber , a first set of measurement results acquired when the dummy absorber is removed from the line where the particle beam propagates, and an integrated extraction dose value of the radiation extracted during acquisition of the two sets of measurement results, wherein the integrated extraction dose value is a measure of an energy loss of the particle beam.
A method for thermal treating waste (D), this method consisting of: - introducing the waste (D) to be treated in a bag (S); - positioning the bag (S) containing the waste (D) inside a device , designed to treat this waste (D), and including a cylindrical barrel , a removable cover for closing this cylindrical barrel , and a bottom movable inside this cylindrical barrel , at least in the direction of the cover ; - after positioning the bag (S) containing the waste (D) inside the device : - proceeding to a thermal treatment of this waste (D), first of all by ensuring a rise in the temperature of the cover and of the bottom of the device and, then, by subjecting to this cover and this bottom a temperature level (P); characterized by the fact that: - at least during the rise in temperature of the cover and the bottom and before reaching the temperature level (P), this cover and this bottom are at least brought closer, and - a temperature which differs by at most 2 °C from the temperature of the bottom , respectively of the cover is imparted to the cover , respectively the bottom , this at least during the temperature level (P). - introducing the waste (D) to be treated in a bag (S); - positioning the bag (S) containing the waste (D) inside a device , designed to treat this waste (D), and including a cylindrical barrel , a removable cover for closing this cylindrical barrel , and a bottom movable inside this cylindrical barrel , at least in the direction of the cover ; - after positioning the bag (S) containing the waste (D) inside the device : - proceeding to a thermal treatment of this waste (D), first of all by ensuring a rise in the temperature of the cover and of the bottom of the device and, then, by subjecting to this cover and this bottom a temperature level (P); characterized by the fact that: - at least during the rise in temperature of the cover and the bottom and before reaching the temperature level (P), this cover and this bottom are at least brought closer, and - a temperature which differs by at most 2 °C from the temperature of the bottom , respectively of the cover is imparted to the cover , respectively the bottom , this at least during the temperature level (P).
Ear lifter for crops with a support bar , wherein the support bar extends in a main direction of extension (X) and has, arranged one after the other in the main direction of extension, a fastening portion , a middle portion and a skid portion , wherein the support bar has a restraining device extending along the central portion , wherein the restraining device reinforces the central portion with respect to a bending stress, wherein a stiffening effect of the restraining device is greater in a first bending direction (Z) than in a second bending direction (-Z) opposite to the first bending direction, characterised in that the restraining device is connected to the central section in such a way that the bending stress causes a relative movement of the restraining device to the central section, wherein the relative movement is more restricted under the bending stress in the first bending direction (Z) than under the bending stress in the second bending direction (-Z). wherein the restraining device reinforces the central portion with respect to a bending stress, wherein a stiffening effect of the restraining device is greater in a first bending direction (Z) than in a second bending direction (-Z) opposite to the first bending direction, characterised in that the restraining device is connected to the central section in such a way that the bending stress causes a relative movement of the restraining device to the central section, wherein the relative movement is more restricted under the bending stress in the first bending direction (Z) than under the bending stress in the second bending direction (-Z).
A motor for a permanent magnet machine , the motor comprising a magnetic carrier formed by a body so that the motor comprises a plurality of ends, including a first end and an opposing second end , an outer surface of the magnetic carrier extends between the plurality of ends , and a plurality of magnetic poles including a first magnetic pole and a second magnetic pole , the plurality of magnetic poles disposed on the magnet carrier , extending between the plurality of ends , and being adjacent on the outer surface of the magnet carrier , wherein each of the plurality of poles comprising an array of magnets, each magnet in the array of magnets being a permanent magnet, each array of magnets comprising a plurality of magnets including a first magnet and a second magnet , the plurality of magnets differing from each other in one or more of material and magnetic field strength (MGOe), wherein the motor is a rotary motor, the magnetic carrier is a rotor and the plurality of ends are axial ends , characterized in that the array of magnets is configured in a plurality of axially extending rows of magnets including a first row of magnets and a second row of magnets . a magnetic carrier formed by a body so that the motor comprises a plurality of ends, including a first end and an opposing second end , an outer surface of the magnetic carrier extends between the plurality of ends , and a plurality of magnetic poles including a first magnetic pole and a second magnetic pole , the plurality of magnetic poles disposed on the magnet carrier , extending between the plurality of ends , and being adjacent on the outer surface of the magnet carrier , wherein each of the plurality of poles comprising an array of magnets, each magnet in the array of magnets being a permanent magnet, each array of magnets comprising a plurality of magnets including a first magnet and a second magnet , the plurality of magnets differing from each other in one or more of material and magnetic field strength (MGOe), wherein the motor is a rotary motor, the magnetic carrier is a rotor and the plurality of ends are axial ends ,
An image forming device (10;400;1000) comprising: a black ink comprising water, an organic solvent, carbon black, a resin A, and a resin B; a black ink applying device (410k;101) configured to apply the black ink to form an image on a recording medium; and a non-contact type heating device including an irradiator (54;301) configured to expose the recording medium onto which the black ink has been applied to visible light or ultraviolet radiation having a wavelength of 700 nm or less, wherein the resin A and the resin B satisfy the following relationship: Tg A < T i < Tg B , where Tg A represents a glass transition temperature of the resin A, Tg B represents a glass transition temperature of the resin B, and Ti represents a surface temperature of the image on the recording medium immediately after the recording medium is exposed to the visible light or ultraviolet radiation. a black ink comprising water, an organic solvent, carbon black, a resin A, and a resin B; a black ink applying device (410k;101) configured to apply the black ink to form an image on a recording medium; and a non-contact type heating device including an irradiator (54;301) configured to expose the recording medium onto which the black ink has been applied to visible light or ultraviolet radiation having a wavelength of 700 nm or less, wherein the resin A and the resin B satisfy the following relationship: Tg A < T i < Tg B , where Tg A represents a glass transition temperature of the resin A, Tg B represents a glass transition temperature of the resin B, and Ti represents a surface temperature of the image on the recording medium immediately after the recording medium is exposed to the visible light or ultraviolet radiation.
A method for producing a nanoparticle-in-oil dispersion in which fine particles having an average particle diameter of the fine particles of 30 to 500 nm measured using a dynamic light scattering photometer made up of a solid component, an aqueous liquid component or a mixture thereof are dispersed in an oil phase, the method comprising: a step of preparing a W/O emulsion-type precursor in which an aqueous phase in the form of droplets of an aqueous solution containing a water-soluble substance dissolved therein is dispersed in an oil phase containing an oil and a surfactant, wherein the concentration of surfactant is within the range of 5 to 50 wt% in 100 wt% of the oil phase; and a step of obtaining a nanoparticle-in-oil dispersion in which the fine particles are dispersed in the oil phase by boiling the aqueous phase of the W/O emulsion-type precursor to perform particle size reduction and dewatering with boiling of the aqueous phase of the W/O emulsion-type precursor. a step of preparing a W/O emulsion-type precursor in which an aqueous phase in the form of droplets of an aqueous solution containing a water-soluble substance dissolved therein is dispersed in an oil phase containing an oil and a surfactant, wherein the concentration of surfactant is within the range of 5 to 50 wt% in 100 wt% of the oil phase; and a step of obtaining a nanoparticle-in-oil dispersion in which the fine particles are dispersed in the oil phase by boiling the aqueous phase of the W/O emulsion-type precursor to perform particle size reduction and dewatering with boiling of the aqueous phase of the W/O emulsion-type precursor.
A safety locking device for interlocking a safety door, having - a movable part designed for being fastened to a moving part of the safety door, the movable part having a locking element , - a stationary part designed for being fastened to a non-moving part of the safety door, wherein - the stationary part comprises a receiving section , the receiving section comprising an opening for the reception of the locking element , wherein the locking element can be inserted into the receiving section from different insertion directions (I), - the stationary part further comprises a latch , the latch being selectively movable from a locking position into a release position, wherein the locking element is secured in the receiving section when the latch is in the locking position and wherein the locking element can be withdrawn from the receiving section when the latch is in the release position, - the locking element , when secured in the locking position, is aligned in one of a plurality of different locking directions (L), characterized in that the different locking directions (L) comprise directions which together form a continuous angular range of at least 90° and that the different insertion directions (I) comprise directions which together form a continuous angular range of at least 90°. - a movable part designed for being fastened to a moving part of the safety door, the movable part having a locking element , - a stationary part designed for being fastened to a non-moving part of the safety door, - the stationary part comprises a receiving section , the receiving section comprising an opening for the reception of the locking element , wherein the locking element can be inserted into the receiving section from different insertion directions (I), - the stationary part further comprises a latch , the latch being selectively movable from a locking position into a release position, wherein the locking element is secured in the receiving section when the latch is in the locking position and wherein the locking element can be withdrawn from the receiving section when the latch is in the release position, - the locking element , when secured in the locking position, is aligned in one of a plurality of different locking directions (L),
An adhesive composition comprising, by dry weight based on total dry weight of the adhesive composition, from 70% to 96%, a polyurethane dispersion, from 1% to 20%, an epoxy resin, and from 0.5% to 15%, an aliphatic amine crosslinker; wherein the polyurethane dispersion comprises a polyurethane prepolymer, and by dry weight based on total dry weight of the polyurethane dispersion, from 0.5% to 10%, an ionic surfactant, and from 0.1% to 8%, a polyamine.
A method for producing an improved microalgal strain having at least a 5% improvement in oil titer relative to a parental microalgal strain, the method comprising cultivating a parental microalgal strain in the presence of an inhibitor of a monosaccharide transporter and isolating an improved microalgal strain that is capable of growth in the presence of the inhibitor of the monosaccharide transporter and that has at least a 5% improvement in oil titer relative to a parental microalgal strain.
A method comprising: obtaining a logical model of a software-defined network , the logical model comprising rules specified for the software-defined network, the logical model being based on a schema defining manageable objects and object properties for the software-defined network; obtaining, from one or more network devices in the software-defined network, a respective hardware model , the respective hardware model comprising rules stored at the one or more network devices corresponding to a respective device-specific representation of the logical model; and based on the logical model and the respective hardware model associated with the one or more network devices, performing an equivalency check between the rules in the logical model and the rules in the respective hardware model to determine whether the logical model and the respective hardware model contain configuration inconsistencies. obtaining a logical model of a software-defined network , the logical model comprising rules specified for the software-defined network, the logical model being based on a schema defining manageable objects and object properties for the software-defined network; obtaining, from one or more network devices in the software-defined network, a respective hardware model , the respective hardware model comprising rules stored at the one or more network devices corresponding to a respective device-specific representation of the logical model; and based on the logical model and the respective hardware model associated with the one or more network devices, performing an equivalency check between the rules in the logical model and the rules in the respective hardware model to determine whether the logical model and the respective hardware model contain configuration inconsistencies.
An egg yolk phospholipid composition, comprising: lysophosphatidylethanolamine at a content of 1% by mass or less; amino acids at a content of from 50 mg/100 g to 500 mg/100 g; phosphatidylcholine at a proportion of 65% by mass or more; and phosphatidylethanolamine at a proportion of 5% by mass or more, wherein in a case in which a total amount of the amino acids is designated as 100 parts by mass, a proportion of a sum of serine, threonine, lysine, and arginine in the amino acids is 10 parts by mass or more, wherein in a case in which a total amount of egg yolk phospholipids is designated as 100 parts by mass, a content of the amino acids with respect to a content of the egg yolk phospholipids is from 0.06 parts by mass to 0.6 parts by mass, wherein in a case in which a content of the phosphatidylcholine is designated as 100 parts by mass, a content of the amino acids with respect to the content of the phosphatidylcholine is from 0.1 parts by mass to 0.8 parts by mass, wherein in a case in which a content of the phosphatidylethanolamine is designated as 100 parts by mass, a content of the amino acids with respect to the content of the phosphatidylethanolamine is from 0.2 parts by mass to 10 parts by mass. lysophosphatidylethanolamine at a content of 1% by mass or less; amino acids at a content of from 50 mg/100 g to 500 mg/100 g; phosphatidylcholine at a proportion of 65% by mass or more; and phosphatidylethanolamine at a proportion of 5% by mass or more, wherein in a case in which a total amount of the amino acids is designated as 100 parts by mass, a proportion of a sum of serine, threonine, lysine, and arginine in the amino acids is 10 parts by mass or more, wherein in a case in which a total amount of egg yolk phospholipids is designated as 100 parts by mass, a content of the amino acids with respect to a content of the egg yolk phospholipids is from 0.06 parts by mass to 0.6 parts by mass, wherein in a case in which a content of the phosphatidylcholine is designated as 100 parts by mass, a content of the amino acids with respect to the content of the phosphatidylcholine is from 0.1 parts by mass to 0.8 parts by mass, wherein in a case in which a content of the phosphatidylethanolamine is designated as 100 parts by mass, a content of the amino acids with respect to the content of the phosphatidylethanolamine is from 0.2 parts by mass to 10 parts by mass.
A method for wireless communications by a user equipment, UE, to enable efficient packet processing during radio link failure, RLF, comprising: receiving, from a first cell node, a key area identifier, ID, of the first cell node, wherein the key area ID identifies a set of cell nodes that are associated with a network node, wherein the set of cell nodes uses a first key for enciphering or deciphering messages; communicating a first set of messages with the first cell node using the first key for enciphering or deciphering the first set of messages; obtaining another indication of the key area ID from a second cell node; and communicating a second set of messages with the second cell node using the first key for enciphering or deciphering the second set of messages, whereby the first cell node and the second cell node belong to a key area which is identified by the key area ID. receiving, from a first cell node, a key area identifier, ID, of the first cell node, wherein the key area ID identifies a set of cell nodes that are associated with a network node, wherein the set of cell nodes uses a first key for enciphering or deciphering messages; communicating a first set of messages with the first cell node using the first key for enciphering or deciphering the first set of messages;