mhurhangee/ep-ind-claims huggingface dataset:
A transmission device for Single-Input, Single-Output, SISO, Multiple-Input, Single-Output, MISO, and Multiple-Input, Multiple-Output, MIMO, the transmission device comprising: a frame configurator configuring at least one SISO frame by exclusively gathering PLP data for SISO from target data, the target data including a plurality of pieces of PLP data to be transmitted via physical layer pipes, PLPs, and configuring at least one MISO/MIMO frame by exclusively gathering either or both of PLP data for MISO and PLP data for MIMO from the target data; a pilot symbol inserter for inserting pilot symbols into the at least one SISO frame and pilot symbols into the at least one MISO/MIMO frame such that a first pattern of the pilot symbols for the PLP data for MISO is same as a second pattern of the pilot symbols for the PLP data for MIMO; and a transmitter for transmitting the at least one SISO frame using the PLPs and transmitting the at least one MISO/MIMO frame using the PLPs, by time-division multiplexing, TDM. a frame configurator configuring at least one SISO frame by exclusively gathering PLP data for SISO from target data, the target data including a plurality of pieces of PLP data to be transmitted via physical layer pipes, PLPs, and configuring at least one MISO/MIMO frame by exclusively gathering either or both of PLP data for MISO and PLP data for MIMO from the target data; a pilot symbol inserter for inserting pilot symbols into the at least one SISO frame and pilot symbols into the at least one MISO/MIMO frame such that a first pattern of the pilot symbols for the PLP data for MISO is same as a second pattern of the pilot symbols for the PLP data for MIMO; and a transmitter for transmitting the at least one SISO frame using the PLPs and transmitting the at least one MISO/MIMO frame using the PLPs, by time-division multiplexing, TDM.
A method for receiving information, applied to a base station, the method characterized by comprising: receiving (S201, S303) flight path information of an unmanned aerial vehicle, UAV, reported by the UAV in UE information response field of radio resource control signaling, wherein content of the flight path information of the UAV comprises at least a path positioning point of the UAV and a reporting time of the flight path information of the UAV; the flight path information is planned flight path information; and the path positioning point of the UAV is a location of a planned flight path of the UAV. receiving (S201, S303) flight path information of an unmanned aerial vehicle, UAV, reported by the UAV in UE information response field of radio resource control signaling, wherein content of the flight path information of the UAV comprises at least a path positioning point of the UAV and a reporting time of the flight path information of the UAV; the flight path information is planned flight path information; and the path positioning point of the UAV is a location of a planned flight path of the UAV.
A disruptor adjustment system comprising: a disruptor assembly comprising a disruptor and an actuator, the disruptor being configured to emit disrupting fluid to disrupt a volume of smelt flowing from a smelt spout into a dissolving tank, and the actuator being operatively engaged to the disruptor and configured to adjust a position of the disruptor; a sensor configured to record process data from a recovery boiler; and a control system configured to receive a sensor output signal from the sensor, wherein the sensor output signal indicates the process data at a measured time, wherein the control system is further configured to compare the sensor output signal to a programmed operation range for the process data, and to send a disruptor input signal to the disruptor assembly to adjust a disruptor operating condition if the process data of the sensor output signal is outside of the programmed operation range. a disruptor assembly comprising a disruptor and an actuator, the disruptor being configured to emit disrupting fluid to disrupt a volume of smelt flowing from a smelt spout into a dissolving tank, and the actuator being operatively engaged to the disruptor and configured to adjust a position of the disruptor; a sensor configured to record process data from a recovery boiler; and a control system configured to receive a sensor output signal from the sensor, wherein the sensor output signal indicates the process data at a measured time, wherein the control system is further configured to compare the sensor output signal to a programmed operation range for the process data, and to send a disruptor input signal to the disruptor assembly to adjust a disruptor operating condition if the process data of the sensor output signal is outside of the programmed operation range.
An integrity monitor, configured to monitor the integrity of a component protection device, the component protection device comprising a protective medium to protect at least one electronic component, the component protection device having associated therewith a magnetic element and a Hall Effect sensor, wherein at least one of the magnetic element and the Hall Effect sensor is embedded within the protective medium and the Hall Effect sensor is located, when in use, to sense a magnetic field generated by the magnetic element, the integrity monitor having an input for receiving an output of the Hall Effect sensor indicative of the sensed magnetic field and the integrity monitor is configured to identify from the received output any change to the sensed magnetic field and determine, based on the change to the sensed magnetic field, an integrity of the component protection device, characterised in that the integrity monitor is arranged, upon detecting a change in the integrity of the component detection device to trigger one or more predetermined actions, and wherein the one or more actions comprises setting non-volatile memory associated with the electronic component to a write-protect state.
An image processing apparatus configured to perform image processing on image data, which are obtained by performing imaging of a subject and in which the degree of motion blurring of an image frame represented by the image data changes in accordance with a shutter speed at the time of performing imaging of the subject, wherein the image processing apparatus is configured to: - generate a motion vector for each pixel block in the image frame; - determine, for each pixel block in the image frame, an optimal shutter speed according to the motion vector of the pixel block by using an optimal shutter speed curve representing a correspondence between an arbitrary motion vector of the pixel block and the optimal shutter speed, wherein the optimal shutter speed is a shutter speed at which neither a jerkiness deterioration nor a blurring deterioration occurs in the image frame; - compare, for each pixel block in the image frame, the determined optimal shutter speed with the actual shutter speed actually used for the imaging; - determine, for each pixel block of the image frame, whether the actual shutter speed is faster or slower than the determined optimal shutter speed; - when determining that the actual shutter speed is slower than the optimal shutter speed, correcting the motion vector of the pixel block by multiplying the value of the motion vector with 0; - when determining that the actual shutter speed is faster than the optimal shutter speed, correcting the motion vector of the pixel block by multiplying the value of the motion vector with a function having a value, which increases with an increasing shutter speed and converges to 1; - add motion blurring to the image frame by performing image processing on the image data using the corrected motion vectors. - generate a motion vector for each pixel block in the image frame; - determine, for each pixel block in the image frame, an optimal shutter speed according to the motion vector of the pixel block by using an optimal shutter speed curve representing a correspondence between an arbitrary motion vector of the pixel block and the optimal shutter speed, wherein the optimal shutter speed is a shutter speed at which neither a jerkiness deterioration nor a blurring deterioration occurs in the image frame; - compare, for each pixel block in the image frame, the determined optimal shutter speed with the actual shutter speed actually used for the imaging; - determine, for each pixel block of the image frame, whether the actual shutter speed is faster or slower than the determined optimal shutter speed; - when determining that the actual shutter speed is slower than the optimal shutter speed, correcting the motion vector of the pixel block by multiplying the value of the motion vector with 0; - when determining that the actual shutter speed is faster than the optimal shutter speed, correcting the motion vector of the pixel block by multiplying the value of the motion vector with a function having a value, which increases with an increasing shutter speed and converges to 1; - add motion blurring to the image frame by performing image processing on the image data using the corrected motion vectors.
A waste trap (10, 110, 210) comprising: a body defining an inlet and an outlet, a tube (26, 126, 226) extending from the inlet into the body, the tube (26, 126, 226) being removable from the body through the inlet, and a sleeve (24, 124) for location within the body for cooperation with a lower end of the tube (26, 126, 226), such that the tube (26, 126, 226) is telescoped in order to adjust the length thereof, wherein when in use, the tube (26, 126, 226) and sleeve (24, 124) in combination form a water seal within the body; and the sleeve (24, 124) is removable from the body in the same manner as the tube (26, 126, 226) through the inlet to allow access to the interior of the trap (10, 110, 210); and wherein the sleeve (24, 124) is located towards a lower portion of the body and the sleeve (24, 124) is spaced from a lower surface of the body so as to allow water outflow from within the sleeve (24, 124), characterised in that the sleeve (24, 124) is spaced from a lower surface of the body by support pins and pin-receiving members, wherein each of the pin-receiving members is configured to receive one of the support pins, and wherein the pin-receiving members are carried on a lower part of the body, and the support pins are provided on an underside of the sleeve (24,124). a body defining an inlet and an outlet, a tube (26, 126, 226) extending from the inlet into the body, the tube (26, 126, 226) being removable from the body through the inlet, and a sleeve (24, 124) for location within the body for cooperation with a lower end of the tube (26, 126, 226), such that the tube (26, 126, 226) is telescoped in order to adjust the length thereof, wherein when in use, the tube (26, 126, 226) and sleeve (24, 124) in combination form a water seal within the body; and the sleeve (24, 124) is removable from the body in the same manner as the tube (26, 126, 226) through the inlet to allow access to the interior of the trap (10, 110, 210); and wherein the sleeve (24, 124) is located towards a lower portion of the body and the sleeve (24, 124) is spaced from a lower surface of the body so as to allow water outflow from within the sleeve (24, 124), characterised in that the sleeve (24, 124) is spaced from a lower surface of the body by support pins and pin-receiving members, wherein each of the pin-receiving members is configured to receive one of the support pins, and wherein the pin-receiving members are carried on a lower part of the body, and the support pins are provided on an underside of the sleeve (24,124).
Device for catching insects in a building space, comprising: - a tray-like holder (18; 30); - a first electrical lamp (20; 34) and a second electrical lamp (20; 35), each being arranged to emit ultraviolet light to attract insects, wherein the first electrical lamp and second electrical lamp are mounted to the tray-like holder ( 18; 30) in a peripheral area thereof and at a distance from one another; - a connecting element (11, 12, 13) adapted to connect the lamps to the domestic mains supply; - at least one cover plate (21, 36), which can be mounted on the tray-like holder (18; 30) for at least partially shielding the lamps (20,20; 34, 35); - a fixing element (23, 38, 39) for fixing insects attracted by the light; - mounting means for mounting the holder (18; 30) recessed in a ceiling of the space, with the lamps (20,20; 34, 35) in the recessed space that is defined by the tray-like holder (18; 30); CHARACTERISED IN THAT the at least one cover plate (21, 36) is horizontally oriented and extends to an extent to essentially shield the first electrical lamp and the second electrical lamp (20,20; 34, 35) on the holder and the device comprising spacing means (22, 37) connected to the holder (18; 30) and the at least one cover plate ( 21, 36), the spacing means (22, 37) positioning the cover plate (21, 36) at a predetermined distance under an underside of the holder (18; 30). - a tray-like holder (18; 30); - a first electrical lamp (20; 34) and a second electrical lamp (20; 35), each being arranged to emit ultraviolet light to attract insects, wherein the first electrical lamp and second electrical lamp are mounted to the tray-like holder ( 18; 30) in a peripheral area thereof and at a distance from one another; - a connecting element (11, 12, 13) adapted to connect the lamps to the domestic mains supply; - at least one cover plate (21, 36), which can be mounted on the tray-like holder (18; 30) for at least partially shielding the lamps (20,20; 34, 35); - a fixing element (23, 38, 39) for fixing insects attracted by the light; - mounting means for mounting the holder (18; 30) recessed in a ceiling of the space, with the lamps (20,20; 34, 35) in the recessed space that is defined by the tray-like holder (18; 30);
A multilevel light emitting LED substrate comprising a plurality of annular substrates spaced apart from each other wherein every two adjacent annular substrates among the plurality of annular substrates are connected with each other by using at least one connection part, the plurality of annular substrates are located in different planes to form a three-dimensional structure by stretching and reshaping the connection part, characterized in that each of the plurality of annular substrates is provided with a disconnected opening and in that a connecting element is disposed on the opening, the connecting element comprises an outer material wrapping and connecting two ends of the opening, an inner material located in the outer material and without contacting with two ends of the opening, the outer material is made of non-conductive material and the inner material is made of conductive material, the inner material is electrically connected with the LED chips on the annular substrate by a connecting wire.
A foldable grip assembly for a foldable firearm, the foldable grip assembly comprising: a foldable pistol grip comprising a pistol grip-frame hinge axis, wherein the foldable pistol grip is rotatably couplable to the frame of the foldable firearm at the pistol grip-frame hinge axis; a foldable trigger, wherein the foldable trigger is rotatably couplable to the frame of the foldable firearm at a trigger hinge axis; a foldable trigger guard assembly, wherein the foldable trigger guard assembly is rotatably coupled to the foldable pistol grip at a trigger guard-pistol grip hinge axis and is rotatably couplable to the frame of the foldable firearm at a trigger guard-frame hinge axis; and a hand stop, wherein the hand stop is rotatably couplable to the frame of the foldable firearm at a hand stop-frame hinge axis: the folding grip assembly being characterized in further comprising: a folding bar, wherein the folding bar is mechanically coupled to the foldable trigger guard assembly at a trigger guard-folding bar hinge axis and is mechanically coupled to the hand stop at a hand stop-folding bar hinge axis. a foldable pistol grip comprising a pistol grip-frame hinge axis, wherein the foldable pistol grip is rotatably couplable to the frame of the foldable firearm at the pistol grip-frame hinge axis; a foldable trigger, wherein the foldable trigger is rotatably couplable to the frame of the foldable firearm at a trigger hinge axis; a foldable trigger guard assembly, wherein the foldable trigger guard assembly is rotatably coupled to the foldable pistol grip at a trigger guard-pistol grip hinge axis and is rotatably couplable to the frame of the foldable firearm at a trigger guard-frame hinge axis; and a hand stop, wherein the hand stop is rotatably couplable to the frame of the foldable firearm at a hand stop-frame hinge axis: the folding grip assembly being characterized in further comprising: a folding bar, wherein the folding bar is mechanically coupled to the foldable trigger guard assembly at a trigger guard-folding bar hinge axis and is mechanically coupled to the hand stop at a hand stop-folding bar hinge axis.
A blow mold unit, comprising: a blow cavity mold including a pair of split molds (101, 102) to be mold-clamped upon contact of parting surfaces thereof with each other, and forming a molding space for molding a hollow container having a push-up bottom; a bottom mold for forming a bottom surface of the molding space; a fixing member having an upper surface side to which the bottom mold is fixed, and a lower surface side to which an elevation rod provided in a raising/lowering device is connected; characterized in a key member coupling the elevation rod and the fixing member together, wherein an insertion hole for inserting the elevation rod is formed to open on the lower surface side of the fixing member, and a communication hole communicating with the insertion hole is formed to open at a side surface of the fixing member, and wherein the key member is inserted into the communication hole and engaged with a key groove provided at a distal end of the elevation rod, whereby the elevation rod and the fixing member are coupled together. a blow cavity mold including a pair of split molds (101, 102) to be mold-clamped upon contact of parting surfaces thereof with each other, and forming a molding space for molding a hollow container having a push-up bottom; a bottom mold for forming a bottom surface of the molding space; a fixing member having an upper surface side to which the bottom mold is fixed, and a lower surface side to which an elevation rod provided in a raising/lowering device is connected; characterized in a key member coupling the elevation rod and the fixing member together, wherein an insertion hole for inserting the elevation rod is formed to open on the lower surface side of the fixing member, and a communication hole communicating with the insertion hole is formed to open at a side surface of the fixing member, and wherein the key member is inserted into the communication hole and engaged with a key groove provided at a distal end of the elevation rod, whereby the elevation rod and the fixing member are coupled together.
A wind farm comprising a plurality of wind turbines, each wind turbine comprising: a generator; and a control system configured to: determine whether a predefined amount of turbulence will be induced to said wind turbine by a wake zone created by a wind turbine upstream thereof; determine an operational status of the upstream wind turbine; adjust at least one constraint of said wind turbine to a first setting if the amount of turbulence is greater than the predefined amount, the at least one constraint affecting power produced by said generator, and if the determined operational status of the upstream wind turbine indicates that the upstream wind turbine is operational; and adjust the constraint of said wind turbine to a second setting if the amount of turbulence is not greater than the predefined amount or if the determined operational status indicates that the upstream wind turbine is non-operational. a generator; and a control system configured to: determine whether a predefined amount of turbulence will be induced to said wind turbine by a wake zone created by a wind turbine upstream thereof; determine an operational status of the upstream wind turbine; determine whether a predefined amount of turbulence will be induced to said wind turbine by a wake zone created by a wind turbine upstream thereof; determine an operational status of the upstream wind turbine; adjust at least one constraint of said wind turbine to a first setting if the amount of turbulence is greater than the predefined amount, the at least one constraint affecting power produced by said generator, and if the determined operational status of the upstream wind turbine indicates that the upstream wind turbine is operational; and adjust the constraint of said wind turbine to a second setting if the amount of turbulence is not greater than the predefined amount or if the determined operational status indicates that the upstream wind turbine is non-operational.
A coil segment cutting method of cutting first and second segment end portions (3, 4, 5, 6, 7, 8) of coil segments to be joined with each other for aligning positions of apexes of the first and second segment end portions (3, 4, 5, 6, 7, 8) to be joined, the coil segments being inserted into slots of a core of a stator or a rotor to form a plurality of layers in a radial direction of the core, the first and second segment end portions (3, 4, 5, 6, 7, 8) being portions protruding from an end face of the core, characterized by: cutting the first segment end portion (3, 5, 7) with a first movable blade that moves such that the first movable blade pushes the first segment end portion (3, 5, 7) onto the second segment end portion (4, 6, 8), in a state where the first and second segment end portions (3, 4, 5, 6, 7, 8) are stacked with each other and supported; and cutting the second segment end portion (4, 6, 8) with a second movable blade that moves such that the second movable blade pushes the second segment end portion (4, 6, 8) onto the first segment end portion (3, 5, 7).
An electrically conductive adhesive comprising a) a (meth)acrylate monomer, b) a polymer being soluble in the (meth)acrylate monomer, and wherein the polymer is selected from the group consisting of poly((meth)acrylates), poly((meth)acrylate) copolymers, and a mixture thereof, c) a biocompatible metal having a median particle size d 50 of below 50 μm, and d) a polymerization initiator. a) a (meth)acrylate monomer, b) a polymer being soluble in the (meth)acrylate monomer, and wherein the polymer is selected from the group consisting of poly((meth)acrylates), poly((meth)acrylate) copolymers, and a mixture thereof, c) a biocompatible metal having a median particle size d 50 of below 50 μm, and d) a polymerization initiator.
An electrical device comprising: a dielectric fluid composition comprising a triglyceride, having at least one alpha-branched fatty acid residue, wherein each alpha-branched fatty acid residue comprises at least one alkyl chain having a total number of carbon atoms ranging from 12 to 20, and is saturated or mono-unsaturated, and wherein the triglyceride has at least one of (a) a flash point of at least 185 °C, (b) a fire point of at least 230 °C, (c) a pour point of -25 °C or lower, or (d) a combination thereof. a triglyceride, having at least one alpha-branched fatty acid residue, wherein each alpha-branched fatty acid residue comprises at least one alkyl chain having a total number of carbon atoms ranging from 12 to 20, and is saturated or mono-unsaturated, at least one alkyl chain having a total number of carbon atoms ranging from 12 to 20, and is saturated or mono-unsaturated, and wherein the triglyceride has at least one of (a) a flash point of at least 185 °C, (b) a fire point of at least 230 °C, (c) a pour point of -25 °C or lower, or (d) a combination thereof. (a) a flash point of at least 185 °C, (b) a fire point of at least 230 °C, (c) a pour point of -25 °C or lower, or (d) a combination thereof.