mhurhangee/patent-ind-claim-en huggingface dataset:
A user equipment of controlling a secondary cell, SCell, comprising: a memory ; a transceiver ; and a processor coupled to the memory and the transceiver , wherein the processor is configured to: control the transceiver to receive at least one of downlink control information, DCI, and a medium access control, MAC, control element, CE, from a network node, wherein the at least one of the DCI and the MAC CE indicates control of a SCell; determine whether to apply or ignore the at least one of the DCI and the MAC CE; and control the SCell according to the determination, characterized in that when the transceiver receives the DCI and the MAC CE simultaneously, the MAC CE indicating activation of the SCell, and the DCI indicating deactivation of the SCell, the processor is configured to ignore one of the DCI and the MAC CE, and apply the other one of the DCI and the MAC CE to control the SCell. a memory ; a transceiver ; and a processor coupled to the memory and the transceiver , wherein the processor is configured to: control the transceiver to receive at least one of downlink control information, DCI, and a medium access control, MAC, control element, CE, from a network node, wherein the at least one of the DCI and the MAC CE indicates control of a SCell; determine whether to apply or ignore the at least one of the DCI and the MAC CE; and control the SCell according to the determination, characterized in that when the transceiver receives the DCI and the MAC CE simultaneously, the MAC CE indicating activation of the SCell, and the DCI indicating deactivation of the SCell, the processor is configured to ignore one of the DCI and the MAC CE, and apply the other one of the DCI and the MAC CE to control the SCell. control the transceiver to receive at least one of downlink control information, DCI, and a medium access control, MAC, control element, CE, from a network node, wherein the at least one of the DCI and the MAC CE indicates control of a SCell; determine whether to apply or ignore the at least one of the DCI and the MAC CE; and control the SCell according to the determination, characterized in that when the transceiver receives the DCI and the MAC CE simultaneously, the MAC CE indicating activation of the SCell, and the DCI indicating deactivation of the SCell, the processor is configured to ignore one of the DCI and the MAC CE, and apply the other one of the DCI and the MAC CE to control the SCell.
Method for detecting a fault condition in the measurement of the level of a medium in a tank with a floating roof , whereby the floating roof is floating on the medium and is vertically guided in the tank , providing a radar level gauge and a level measuring device , whereby the radar level gauge , mounted in a fixed position on the tank , is emitting radar signals in the direction of the floating roof and receiving the echo signals reflected on the surface of the floating roof , and whereby the level measuring device is measuring the level of the medium in the tank , comprising the steps of: a) determining and recording data representing the level of the floating roof during a defined time interval, whereby the defined time interval comprises some filling/emptying cycles of the medium in/from the tank , b) determining and recording data representing the level of the medium in the tank during said time interval, which comprises some filling/emptying cycles of the medium in/from the tank , c) determining the deviations between the data representing the level of the medium in the tank and the corresponding data representing the level of the floating roof , d) centering the deviations between the stored data representing the level of the medium and the level of the floating roof , preferably reduced by the thickness (D) of the floating roof with the corresponding level data, e) analyzing the centered deviations as a function of the height of the tank by using an outlier detection method, and f) generating an alert message that a fault condition of the vertical guiding of the floating roof occurs, in the case that the centered deviations exceed repeatedly the threshold value/threshold values in at least one height of the tank . a) determining and recording data representing the level of the floating roof during a defined time interval, whereby the defined time interval comprises some filling/emptying cycles of the medium in/from the tank , b) determining and recording data representing the level of the medium in the tank during said time interval, which comprises some filling/emptying cycles of the medium in/from the tank , c) determining the deviations between the data representing the level of the medium in the tank and the corresponding data representing the level of the floating roof , d) centering the deviations between the stored data representing the level of the medium and the level of the floating roof , preferably reduced by the thickness (D) of the floating roof with the corresponding level data, e) analyzing the centered deviations as a function of the height of the tank by using an outlier detection method, and f) generating an alert message that a fault condition of the vertical guiding of the floating roof occurs, in the case that the centered deviations exceed repeatedly the threshold value/threshold values in at least one height of the tank .
Stirring apparatus, in particular for a liquid container , having a monitoring apparatus for monitoring the stirring apparatus , wherein the monitoring apparatus comprises a temperature recording unit , which is designed to record a temperature in a region of the stirring apparatus , and an evaluation unit , which is designed to take the recorded temperature as a basis for outputting a signal , having an electric drive , wherein the region in which the temperature is recorded is an outer surface region of the electric drive , in particular of a housing and/or of a cooling surface of the electric drive , characterized in that the signal signals a fault and/or wear and/or a need for repair and/or a need for maintenance of the stirring apparatus .
A compound represented by the following formula (I) or a salt thereof for use in promoting graft survival: (wherein R 1 represents a hydrogen atom or an acyl group; and R 2 represents a hydrogen atom, a linear or branched alkyl group, a cycloalkyl group, an aryl group, or an aralkyl group), wherein the compound or salt thereof is further combined with an iron compound, and wherein the use does not require light.
A system for dispensing granular material into a container configured to be hot isostatically pressed, the system comprising: a filling nozzle having at least one opening, the filling nozzle being configured to open and close via rotary actuation, a filling port that is integrally connected to the container, wherein the filling nozzle and filling port are configured to selectively attach together; and wherein the filling nozzle is configured to conditionally allow the granular material to be dispensed into the container when an opening of the filling nozzle is aligned with an opening in the filling port; wherein the system further comprises a vibratory device or vacuum powder compaction device that is configured to pack the granular material and thereby increase its density. a filling nozzle having at least one opening, the filling nozzle being configured to open and close via rotary actuation, a filling port that is integrally connected to the container, wherein the filling nozzle and filling port are configured to selectively attach together; and wherein the filling nozzle is configured to conditionally allow the granular material to be dispensed into the container when an opening of the filling nozzle is aligned with an opening in the filling port; wherein the system further comprises a vibratory device or vacuum powder compaction device that is configured to pack the granular material and thereby increase its density.
Method for compensation of the blockage of a rudder blade in an X-shaped rudder of a submarine, wherein the method comprises the following steps: a) check whether a rudder blade is blocked, b) determine which rudder blade is blocked, c) determine the angle at which the blocked rudder blade is blocked, d) compensate the control angle for the remaining three rudder blades, m) actuate the rudder blades, wherein following step d) the following steps are carried out: e) check whether one of the compensating control angles is greater than the maximum permissible control angle, f) if e) is positive, then determine which compensating control angle has the largest deflection, g) scale the compensating control angle, m) if e) is negative or following g), actuate the rudder blades, wherein following step g), the following steps are carried out: h) check whether the magnitude of the specified stern plane is greater than or equal to 1° and the magnitude of the scaled stern plane is less than 1°, i) if h) is negative, then perform an adjustment with a scaled rudder and a scaled stern plane according to step g) and continue with step m), j) if h) is positive then re-scale, taking into account the roll rudder, k) determine the re-scaled rudder, the re-scaled stern plane and the re-scaled roll rudder, l) then perform an adjustment with the re-scaled rudder, re-scaled stern plane and re-scaled roll rudder, m) if e) is negative or following i) or following l), actuate the rudder blades. a) check whether a rudder blade is blocked, b) determine which rudder blade is blocked, c) determine the angle at which the blocked rudder blade is blocked, d) compensate the control angle for the remaining three rudder blades, m) actuate the rudder blades, e) check whether one of the compensating control angles is greater than the maximum permissible control angle, f) if e) is positive, then determine which compensating control angle has the largest deflection, g) scale the compensating control angle, m) if e) is negative or following g), actuate the rudder blades, h) check whether the magnitude of the specified stern plane is greater than or equal to 1° and the magnitude of the scaled stern plane is less than 1°, i) if h) is negative, then perform an adjustment with a scaled rudder and a scaled stern plane according to step g) and continue with step m), j) if h) is positive then re-scale, taking into account the roll rudder, k) determine the re-scaled rudder, the re-scaled stern plane and the re-scaled roll rudder, l) then perform an adjustment with the re-scaled rudder, re-scaled stern plane and re-scaled roll rudder, m) if e) is negative or following i) or following l), actuate the rudder blades.
A method for producing a primer used for a next-generation sequencer comprising: a step of calculating, for the primer used for a next-generation sequencer comprising a nucleotide sequence of 5'-CAAGCAGAAGACGGCATACGAGAT (SEQ ID NO: 1 )-N 5 to 15 GTCTCGTGGGCTCGGAGATGTGTATAAGAGACAG (SEQ ID NO: 2)-3', wherein N indicates an index sequence of 5 to 15 nucleotides, a putative N 5 to 15 number of reads based on a nucleotide sequence of the index sequence in accordance with an estimation formula that designates the number of reads as a purpose variable and a type of a nucleotide in the index sequence as an explanatory variable to design a nucleotide sequence as a nucleotide sequence of the index sequence where the calculated putative number of reads exceeds a given level; and a step of synthesizing a nucleotide sequence comprising the index sequence designed in the above step; wherein the estimation formula includes items comprising a nucleotide type and a coefficient in accordance therewith concerning the N number of nucleotides constituting the index sequence. a step of calculating, for the primer used for a next-generation sequencer comprising a nucleotide sequence of 5'-CAAGCAGAAGACGGCATACGAGAT (SEQ ID NO: 1 )-N 5 to 15 GTCTCGTGGGCTCGGAGATGTGTATAAGAGACAG (SEQ ID NO: 2)-3', wherein N indicates an index sequence of 5 to 15 nucleotides, a putative N 5 to 15 number of reads based on a nucleotide sequence of the index sequence in accordance with an estimation formula that designates the number of reads as a purpose variable and a type of a nucleotide in the index sequence as an explanatory variable to design a nucleotide sequence as a nucleotide sequence of the index sequence where the calculated putative number of reads exceeds a given level; and a step of synthesizing a nucleotide sequence comprising the index sequence designed in the above step; wherein the estimation formula includes items comprising a nucleotide type and a coefficient in accordance therewith concerning the N number of nucleotides constituting the index sequence.
A method for moulding metal parts implemented in a system for moulding metal parts comprising a first metal structure which is integrally attached to a rotating machine, and where said structure is associated with a cover and a plurality of fastening elements , and where, in turn, the structure is integrally attached to a cylindrical metal die containing a ceramic mould and hardened sand for filling the die , and characterised in that it comprises the steps of: a) making a polystyrene model of a metal part; b) introducing the polystyrene model in a liquid zirconium sand and binder mixture; c) coating the polystyrene model with zirconium sand; d) introducing the part in a drying oven for about thirty minutes at 30°C; e) applying a liquid layer of a silica and silicon dioxide binder mixture; f) coating the part with kaolin; g) introducing the part in a drying oven for about 45 minutes at 50°C; h) repeating steps f) and g) until the part obtains a ceramic thickness of between 10 and 15 millimetres; i) introducing the part in a high-temperature oven for about an hour at a temperature of 1050°C until the polystyrene becomes volatile and the ceramic mould is obtained; j) attaching the mould to the die inside the latter and adding hardened sand ; and k) attaching the die to the structure or base to the centrifuging machine and casting the molten material. a) making a polystyrene model of a metal part; b) introducing the polystyrene model in a liquid zirconium sand and binder mixture; c) coating the polystyrene model with zirconium sand; d) introducing the part in a drying oven for about thirty minutes at 30°C; e) applying a liquid layer of a silica and silicon dioxide binder mixture; f) coating the part with kaolin; g) introducing the part in a drying oven for about 45 minutes at 50°C; h) repeating steps f) and g) until the part obtains a ceramic thickness of between 10 and 15 millimetres; i) introducing the part in a high-temperature oven for about an hour at a temperature of 1050°C until the polystyrene becomes volatile and the ceramic mould is obtained; j) attaching the mould to the die inside the latter and adding hardened sand ; and k) attaching the die to the structure or base to the centrifuging machine and casting the molten material.
An epoxy-based primer for an anti-corrosion coating composition for a substrate comprising: non-chromate inhibitors; partially oxidized graphene particles mixed into the epoxy based primer; and alkoxysilanes mixed with the graphene particles, wherein the graphene particles are nanoplatelets, and wherein the nanoplatelets have average diameters between 1 nanometer and 25 nanometers. non-chromate inhibitors; partially oxidized graphene particles mixed into the epoxy based primer; and alkoxysilanes mixed with the graphene particles, wherein the graphene particles are nanoplatelets, and wherein the nanoplatelets have average diameters between 1 nanometer and 25 nanometers.
A rotary electric-machine rotor comprising: a rotor core made of magnetic material, the rotor core having magnet holes extending in an axial direction of the rotary electric-machine rotor ; magnets disposed in the magnet holes ; resin portions (18; 18a, 18b) disposed in at least part of gaps between the magnet holes and the magnets , the resin portions extending in the axial direction; and end plates disposed adjacent to end surfaces in an axial direction of the rotor core , wherein the end plates are members made of magnetic material, the end plates cover the end surfaces of the magnets in the axial direction and the end surfaces of the resin portions (18; 18a, 18b) in the axial direction, characterized in that each of the end plates has a plurality of holes disposed in an end surface of each of the end plates such that each end surface of each of the magnets is faced by a plurality of holes among the plurality of holes. a rotor core made of magnetic material, the rotor core having magnet holes extending in an axial direction of the rotary electric-machine rotor ; magnets disposed in the magnet holes ; resin portions (18; 18a, 18b) disposed in at least part of gaps between the magnet holes and the magnets , the resin portions extending in the axial direction; and end plates disposed adjacent to end surfaces in an axial direction of the rotor core , wherein the end plates are members made of magnetic material, the end plates cover the end surfaces of the magnets in the axial direction and the end surfaces of the resin portions (18; 18a, 18b) in the axial direction, characterized in that each of the end plates has a plurality of holes disposed in an end surface of each of the end plates such that each end surface of each of the magnets is faced by a plurality of holes among the plurality of holes.
A super-junction device comprising an epitaxial layer of a first conductivity type, the epitaxial layer defining a core region, a termination region surrounding the core region and a transition region interposed between the core region and the termination region, the epitaxial layer containing a number of pillars of the first conductivity type and a number of pillars of a second conductivity type in the core and transition regions, which are arranged alternately, characterized in that : upper portions of some of the pillars of the second conductivity type in the core region in proximity to the transition region exhibit a dopant ion concentration increasing from one pillar to the next in the direction from the transition region to the core region, and wherein a width at least at the upper portion of a pillar of the second conductivity type positioned at an interface between the transition region and the core region is less than a width of the pillars of the second conductivity type in the core region.
Apparatus for placing fasteners with an apparatus body provided with a handle and comprising: - a wire inlet for receiving a fastening wire, - a fastening placement head , and - at least one first reel-holder for receiving a reserve of fastening wire, characterised in that the apparatus comprises at least one electric motor for actuating the placement head and in that the apparatus body comprises an attachment base which can receive the first reel-holder, for a removable attachment of the first reel-holder onto the apparatus body , wherein the attaching base and the first reel-holder include an elastic latch . - a wire inlet for receiving a fastening wire, - a fastening placement head , and - at least one first reel-holder for receiving a reserve of fastening wire,
Cooling device for a multi-layered laminate , - with a housing which at least partially surrounds a transport section along which the at least one laminate composite is moved, - with an inlet opening and outlet opening provided on the housing , and - with cooling devices arranged on both sides of the transport path in the housing , the cooling devices being located opposite one another in pairs, characterized in that the cooling devices are matched to one another so that they generate a common air flow, which crosses the transport path and forms a cooling path for the at least one laminate composite and leads a heat removal from the housing of the cooling device to the outside. - with a housing which at least partially surrounds a transport section along which the at least one laminate composite is moved, - with an inlet opening and outlet opening provided on the housing , and - with cooling devices arranged on both sides of the transport path in the housing , the cooling devices being located opposite one another in pairs, characterized in that the cooling devices are matched to one another so that they generate a common air flow, which crosses the transport path and forms a cooling path for the at least one laminate composite and leads a heat removal from the housing of the cooling device to the outside.
A method of controlling cooling water treatment comprising: monitoring, by one or more processors, a heat transfer efficiency of at least one heat exchanger and establishing a heat transfer efficiency trend for the heat exchanger, the heat exchanger having a process stream-side and a cooling water stream-side; receiving, by the one or more processors, data indicative of scale fouling on the cooling water stream-side; receiving, by the one or more processors, data indicative of corrosion fouling on the cooling water stream-side; receiving, by the one or more processors, data indicative of biofouling on the cooling water stream-side; characterised in detecting, by the one or more processors, a change in the heat transfer efficiency trend; determining, by the one or more processors, a predicted cause of the detected change in the heat transfer efficiency trend based at least on the received data indicative of scale fouling, corrosion fouling, and biofouling; and controlling addition of a chemical additive into a cooling water that is in fluid communication with the cooling water stream-side of the at least one heat exchanger based on the predicted cause. monitoring, by one or more processors, a heat transfer efficiency of at least one heat exchanger and establishing a heat transfer efficiency trend for the heat exchanger, the heat exchanger having a process stream-side and a cooling water stream-side; receiving, by the one or more processors, data indicative of scale fouling on the cooling water stream-side; receiving, by the one or more processors, data indicative of corrosion fouling on the cooling water stream-side; receiving, by the one or more processors, data indicative of biofouling on the cooling water stream-side; characterised in detecting, by the one or more processors, a change in the heat transfer efficiency trend; determining, by the one or more processors, a predicted cause of the detected change in the heat transfer efficiency trend based at least on the received data indicative of scale fouling, corrosion fouling, and biofouling; and controlling addition of a chemical additive into a cooling water that is in fluid communication with the cooling water stream-side of the at least one heat exchanger based on the predicted cause.