mhurhangee/patent-ind-claim-en huggingface dataset:
A picture coding device for coding a moving picture using inter prediction based on inter prediction information in units of blocks into which each picture of moving pictures is divided, the picture coding device comprising: a coding information storage unit configured to, at the beginning of each predetermined unit, initialize all history-based candidates in a history-based motion vector predictor candidate list by filling them with motion vectors equal to and reference indexes incremented by 1 from 0 to N-1, N being the number of reference pictures, and thereafter equal to 0, wherein the reference indexes are used to identify reference pictures in a reference picture list; a merging candidate list generation unit configured to generate a merging candidate list including at least a motion vector and a reference index of a block neighboring a coding target block as a merging candidate; a history-based merging candidate addition unit configured to add a history-based candidate included in the history-based motion vector predictor candidate list to the merging candidate list as a merging candidate; and a merging candidate selection unit configured to select a merging candidate from the merging candidate list as a selection merging candidate, wherein the coding information storage unit updates the history-based motion vector predictor candidate list by adding the selection merging candidate as a history-based candidate to the history-based motion vector predictor candidate list, and the predetermined unit is a picture, a slice or a tile. a coding information storage unit configured to, at the beginning of each predetermined unit, initialize all history-based candidates in a history-based motion vector predictor candidate list by filling them with motion vectors equal to and reference indexes incremented by 1 from 0 to N-1, N being the number of reference pictures, and thereafter equal to 0, wherein the reference indexes are used to identify reference pictures in a reference picture list; a merging candidate list generation unit configured to generate a merging candidate list including at least a motion vector and a reference index of a block neighboring a coding target block as a merging candidate; a history-based merging candidate addition unit configured to add a history-based candidate included in the history-based motion vector predictor candidate list to the merging candidate list as a merging candidate; and a merging candidate selection unit configured to select a merging candidate from the merging candidate list as a selection merging candidate, wherein the coding information storage unit updates the history-based motion vector predictor candidate list by adding the selection merging candidate as a history-based candidate to the history-based motion vector predictor candidate list, and the predetermined unit is a picture, a slice or a tile.
Foldable travel case, comprising an upper and a lower side , a hinge side and at least one side surface , wherein the upper and lower sides , the hinge sides and the at least one side surface are connected to each other via connecting strips , characterized in that at least two opposite sides of two case halves have additional connecting strips of soft elastic material made of plastic, rubber, silicone, textile, fabric or a combination thereof, arranged at 45 degrees to the short edges, starting from the corners. an upper and a lower side , a hinge side and at least one side surface , wherein the upper and lower sides , the hinge sides and the at least one side surface are connected to each other via connecting strips , characterized in that at least two opposite sides of two case halves have additional connecting strips of soft elastic material made of plastic, rubber, silicone, textile, fabric or a combination thereof, arranged at 45 degrees to the short edges, starting from the corners.
A method for determining a lateral position of a collector relative to a rail supplied with electrical energy, the rail being associated with a magnetic field source , the collector being suitable for collecting electrical energy by contact with the rail , the method comprising the following successive steps: - measuring a magnetic field by each of two proximity sensors arranged in line with the rail and whose position relative to the collector is known, and - determining the lateral position of the collector from the measured magnetic fields, wherein, in the determination step , the lateral position of the collector relative to the rail is determined from the amplitudes of each measured magnetic field, and wherein, in the determination step , the lateral position of the collector relative to the rail is determined from a difference between the amplitudes of each measured magnetic field, characterised in that the method further comprises, between the measurement step and the determination step , a filtering step each measured magnetic field using a bandpass filter, and in that during the determination step , the lateral position of the collector relative to the rail is determined on the basis of each filtered magnetic field, the method further comprising, between the filtering step and the determination step , a step of detecting, in each measured field, a maximum amplitude of said field. - measuring a magnetic field by each of two proximity sensors arranged in line with the rail and whose position relative to the collector is known, and - determining the lateral position of the collector from the measured magnetic fields, wherein, in the determination step , the lateral position of the collector relative to the rail is determined from the amplitudes of each measured magnetic field, and wherein, in the determination step , the lateral position of the collector relative to the rail is determined from a difference between the amplitudes of each measured magnetic field, characterised in that the method further comprises, between the measurement step and the determination step , a filtering step each measured magnetic field using a bandpass filter, and in that during the determination step , the lateral position of the collector relative to the rail is determined on the basis of each filtered magnetic field, the method further comprising, between the filtering step and the determination step , a step of detecting, in each measured field, a maximum amplitude of said field.
Hydraulic accumulator, in the form of a piston accumulator, in which a piston part separates two media chambers inside an accumulator housing from one another, the piston part being guided in a hollow tube or track inside the accumulator housing in each of its possible movement positions, and the track being fixed with its upper end on a lid part of the accumulator housing , characterised in that the piston part is designed as a deep-drawn part, and in that , to fix the track , the inside of the end edge of the lid part comprises a seat for the track with a tolerance sleeve and an O-ring seal .
A washing machine comprising: a tub for accommodating washing water, the tub has a transmission coil for generating a wireless power signal and transmitting power wirclcssly; a rotatable drum having a cylindrical shape disposed inside the tub and for accommodating a cloth, and a balancer for reducing unbalance generated by the cloth when the drum is rotated, characterized in that the balancer comprises: at least two drive modules for providing a driving force; at least two gear rails having a ring shape which are gear-coupled to each of the drive modules and rotatable; at least two balancing weights adapted to move along a circumference of the drum by rotation of each of the gear rails and to change a center of gravity of the drum ; a reception coil for generating power based on a magnetic field formed by the transmission coil ; and a guide case for accommodating at least the reception coil and the drive modules . a tub for accommodating washing water, the tub has a transmission coil for generating a wireless power signal and transmitting power wirclcssly; a rotatable drum having a cylindrical shape disposed inside the tub and for accommodating a cloth, and a balancer for reducing unbalance generated by the cloth when the drum is rotated, characterized in that the balancer comprises: at least two drive modules for providing a driving force; at least two gear rails having a ring shape which are gear-coupled to each of the drive modules and rotatable; at least two balancing weights adapted to move along a circumference of the drum by rotation of each of the gear rails and to change a center of gravity of the drum ; a reception coil for generating power based on a magnetic field formed by the transmission coil ; and a guide case for accommodating at least the reception coil and the drive modules . at least two drive modules for providing a driving force; at least two gear rails having a ring shape which are gear-coupled to each of the drive modules and rotatable; at least two balancing weights adapted to move along a circumference of the drum by rotation of each of the gear rails and to change a center of gravity of the drum ; a reception coil for generating power based on a magnetic field formed by the transmission coil ; and a guide case for accommodating at least the reception coil and the drive modules .
A stay mechanism for a turn-and-tilt casement of a window or a door , with a locking device , which can be arranged at the casement , and a base part , which can be fastened to the frame , on which base part a power transmission means , operated by means of a motorized driving device , is mounted, having a connecting link to the casement , wherein the connecting link is a drive-rod connecting element , wherein the drive-rod connecting element is arranged at a free end of the power transmission means and can be coupled with a drive-rod element having the locking device and locking pins movable thereon, wherein the casement can be brought into a locking position and into an unlocking position by means of the motorized driving device by displacement along the direction of displacement of the drive-rod element with the locking pin arranged thereon, characterized in that the stay mechanism has a device for aligning the base part , which can be fastened to the frame , with the power transmission means and the locking device , which can be fastened to the casement , which device consists of an engagement element of the stay mechanism fastened in a housing of the base part and a pin immovably fixed with the locking device , wherein the engagement element and the pin enter into a dimensionally stable connection and the pin has a constantly consistent distance, with a dimension (X), relative to the locking pin for each of the predetermined positions of closing or turning or tilting of the casement , wherein the pin , upon assembly at the casement , firmly connected with the locking device , permanently assumes the turning position and the engagement element is likewise firmly connected with the base part at the frame by a form- and/or force-fitting connection, and together they form the device .
An electronic device comprising: a housing including a first plate, a second plate facing the first plate, 5 and a side member surrounding a space between the first plate and the second plate ; and a circuit board including a wireless communication circuit , wherein the second plate includes a slot filled with a non-conductive material, wherein an area other than the slot is formed of a conductive material 10 , wherein the circuit board includes a conductive pattern formed along a path following the slot of the second plate and formed on the circuit board , and wherein the wireless communication circuit is configured to: feed one point ('a') adjacent to the slot to receive a signal of a first frequency 15 band through an electrical path formed by the slot ; and feed the conductive pattern to receive a signal of a second frequency band through the slot . a housing including a first plate, a second plate facing the first plate, 5 and a side member surrounding a space between the first plate and the second plate ; and a circuit board including a wireless communication circuit , wherein the second plate includes a slot filled with a non-conductive material, wherein an area other than the slot is formed of a conductive material 10 , wherein the circuit board includes a conductive pattern formed along a path following the slot of the second plate and formed on the circuit board , and wherein the wireless communication circuit is configured to: feed one point ('a') adjacent to the slot to receive a signal of a first frequency 15 band through an electrical path formed by the slot ; and feed the conductive pattern to receive a signal of a second frequency band through the slot . feed one point ('a') adjacent to the slot to receive a signal of a first frequency 15 band through an electrical path formed by the slot ; and feed the conductive pattern to receive a signal of a second frequency band through the slot .
A method for determining a distribution of spots for use with ion beam therapy for providing the spots in a target volume , wherein each spot represents a collection of ions of a specific energy level, the spot having a specific size at a specific lateral location, the method being performed in a treatment planning system and comprising the steps of: dividing the target volume in a plurality of target sections (6a-c) based on a user configuration comprising at least one spot size strategy defining a maximum spot size at the location of a Bragg peak; assigning a spot size strategy to each one of the target sections (6a-c) based on the location of the respective target section; and determining , within each target section (6a-c), spots in accordance with its spot size strategy, characterized in that the step of dividing the target volume comprises defining a risk target section between an edge of the target volume and a risk margin , wherein the risk margin corresponds to a parameter in the user configuration defining a margin in relation to an organ at risk . dividing the target volume in a plurality of target sections (6a-c) based on a user configuration comprising at least one spot size strategy defining a maximum spot size at the location of a Bragg peak; assigning a spot size strategy to each one of the target sections (6a-c) based on the location of the respective target section; and determining , within each target section (6a-c), spots in accordance with its spot size strategy, characterized in that the step of dividing the target volume comprises defining a risk target section between an edge of the target volume and a risk margin , wherein the risk margin corresponds to a parameter in the user configuration defining a margin in relation to an organ at risk .
A synthetic scaffold protein comprising the sequence: NSLEIEELARFAVDEHNKKENALLEFVRVVKAKEQ(Xn)TMYYLTLEAKDGGKKKLYEAKVWVK(Xn)NFKELQEFKPVGDA (SEQ ID NO:4) or an amino acid sequence which is at least 85% identical to the amino acid sequence of SEQ ID NO:4, wherein Xn is a heterologous peptide sequence, wherein X is any amino acid and n is the number of amino acids in the sequence, and wherein n is from 3 to 30, wherein the synthetic scaffold protein has a melting temperature, Tm, of at least 70 °C. NSLEIEELARFAVDEHNKKENALLEFVRVVKAKEQ(Xn)TMYYLTLEAKDGGKKKLYEAKVWVK(Xn)NFKELQEFKPVGDA (SEQ ID NO:4) or an amino acid sequence which is at least 85% identical to the amino acid sequence of SEQ ID NO:4, wherein Xn is a heterologous peptide sequence, wherein X is any amino acid and n is the number of amino acids in the sequence, and wherein n is from 3 to 30, wherein the synthetic scaffold protein has a melting temperature, Tm, of at least 70 °C.
Method for operating a vehicle having the steps: - providing the vehicle , - providing a control location in order to influence the vehicle , - intermittently regularly sending status information about a status of the vehicle from the vehicle to the control location , and - sending a pause command from the control location to the vehicle or vice versa, so that a use of a communication channel between the vehicle and the control location is momentarily refrained from, wherein the control location is designed, if no pause command was previously sent, to close the communication channel to the vehicle after a predetermined waiting time (W) without transmitting status information , characterised in that the control location , if no pause command was previously sent, deletes the previously obtained status information after the predetermined waiting time (W) without transmitting status information so that the vehicle is discharged from the control location , wherein the previously issued pause command results in the vehicle remaining registered in the control location even longer than the waiting time (W). - providing the vehicle , - providing a control location in order to influence the vehicle , - intermittently regularly sending status information about a status of the vehicle from the vehicle to the control location , and - sending a pause command from the control location to the vehicle or vice versa, so that a use of a communication channel between the vehicle and the control location is momentarily refrained from, wherein the control location is designed, if no pause command was previously sent, to close the communication channel to the vehicle after a predetermined waiting time (W) without transmitting status information , characterised in that the control location , if no pause command was previously sent, deletes the previously obtained status information after the predetermined waiting time (W) without transmitting status information so that the vehicle is discharged from the control location , wherein the previously issued pause command results in the vehicle remaining registered in the control location even longer than the waiting time (W).
A method in a receiver node , the method comprising: converting a received time-domain signal to a frequency-domain signal; obtaining , for the frequency-domain signal, an estimate of a frequency offset between a particular transmitter of one or more transmitters of interest and a receiver of the receiver node ; obtaining a frequency compensated signal by applying a first frequency offset to compensate for the estimated frequency offset; obtaining a first channel estimation from the frequency compensated signal ; obtaining a second channel estimation from the first channel estimation by applying a second frequency offset to an estimated channel, wherein the second frequency offset is the opposite of the first frequency offset; and equalizing the frequency-domain signal using the second channel estimation . converting a received time-domain signal to a frequency-domain signal; obtaining , for the frequency-domain signal, an estimate of a frequency offset between a particular transmitter of one or more transmitters of interest and a receiver of the receiver node ; obtaining a frequency compensated signal by applying a first frequency offset to compensate for the estimated frequency offset; obtaining a first channel estimation from the frequency compensated signal ; obtaining a second channel estimation from the first channel estimation by applying a second frequency offset to an estimated channel, wherein the second frequency offset is the opposite of the first frequency offset; and equalizing the frequency-domain signal using the second channel estimation .
Arrangement for controlling a demand-based obstacle beaconing system of a wind turbine , with - a switch cabinet , which has a switch-cabinet housing ; - a first antenna device , which is arranged on the switch-cabinet housing ; - a first receiving device , which is associated with the first antenna device , is arranged in the switch-cabinet housing , and is configured to receive transponder signals via the first antenna device ; - a first control device (40; 53), which is connected to the first receiving device and is configured to receive the transponder signals from the first receiving device and, as a function of the same, to provide first control signals for an obstacle beaconing system of a wind turbine and to deliver them to a switch device (42; 52) of the obstacle beaconing system with which a first signalling device of the obstacle beaconing system is switched as a function of the control signals; - a second antenna device ; and - a transceiver device , which is associated with the second antenna device , is arranged in the switch-cabinet housing , and is configured to transmit and receive, separately from the transponder signals, data communication signals via the second antenna device ; characterized in that - the switch cabinet is configured to be arranged in the outside area on a nacelle of the wind turbine , and the switch-cabinet housing is usable in the outside area; and - the second antenna device is arranged on the switch-cabinet housing . - a switch cabinet , which has a switch-cabinet housing ; - a first antenna device , which is arranged on the switch-cabinet housing ; - a first receiving device , which is associated with the first antenna device , is arranged in the switch-cabinet housing , and is configured to receive transponder signals via the first antenna device ; - a first control device (40; 53), which is connected to the first receiving device and is configured to receive the transponder signals from the first receiving device and, as a function of the same, to provide first control signals for an obstacle beaconing system of a wind turbine and to deliver them to a switch device (42; 52) of the obstacle beaconing system with which a first signalling device of the obstacle beaconing system is switched as a function of the control signals; - a second antenna device ; and - a transceiver device , which is associated with the second antenna device , is arranged in the switch-cabinet housing , and is configured to transmit and receive, separately from the transponder signals, data communication signals via the second antenna device ; characterized in that - the switch cabinet is configured to be arranged in the outside area on a nacelle of the wind turbine , and the switch-cabinet housing is usable in the outside area; and - the second antenna device is arranged on the switch-cabinet housing .
An anti-drift system for roller positioners for a cylindrical body comprising: a first crossbeam on which a pair of driving rollers is mounted, being laterally spaced from each other; a second crossbeam on which a pair of idle rollers is mounted, being laterally spaced from each other; said pair of idle rollers being axially spaced from said pair of driving rollers ; said pair of driving rollers being connected to a driving motor ; a third cross beam mountable under said first crossbeam ; characterised in that it comprises: a fourth crossbeam mountable under said second crossbeam ; said fourth crossbeam consisting of a lower part fixable to the floor and by an upper part fixable below said second crossbeam ; said lower part and said upper part sliding on top of one another; said system comprises a sensor designed to control the drift of said cylindrical body ; a control centre that receives the values measured by said drift sensor and, under-framed on these values, control the sliding of said upper part in respect to said lower part .