mhurhangee/ep-ind-claims huggingface dataset:
An electrical power system comprising: a DC voltage source, a DC electrical network, a DC to AC to DC converter having a transformer, a primary side comprising a plurality of transistors connected between the DC voltage source and a primary winding of the transformer, and a secondary side comprising a plurality of transistors connected between the DC electrical network and a secondary winding of the transformer, and a controller configured to control the DC to AC to DC converter, wherein the controller is configured to: monitor an electrical current or voltage between the DC voltage source and the DC electrical network; determine, based on the monitored electrical current or voltage, whether the DC electrical network is in a fault condition; and increase a switching frequency of the primary side of the DC to AC to DC converter in response to a positive determination that the DC electrical network is in a fault condition, characterized in that the transformer has a non-magnetic core and a leakage reactance of greater than 0.2 per unit. a DC voltage source, a DC electrical network, a DC to AC to DC converter having a transformer, a primary side comprising a plurality of transistors connected between the DC voltage source and a primary winding of the transformer, and a secondary side comprising a plurality of transistors connected between the DC electrical network and a secondary winding of the transformer, and a controller configured to control the DC to AC to DC converter, wherein the controller is configured to: monitor an electrical current or voltage between the DC voltage source and the DC electrical network; determine, based on the monitored electrical current or voltage, whether the DC electrical network is in a fault condition; and increase a switching frequency of the primary side of the DC to AC to DC converter in response to a positive determination that the DC electrical network is in a fault condition, monitor an electrical current or voltage between the DC voltage source and the DC electrical network; determine, based on the monitored electrical current or voltage, whether the DC electrical network is in a fault condition; and increase a switching frequency of the primary side of the DC to AC to DC converter in response to a positive determination that the DC electrical network is in a fault condition, characterized in that the transformer has a non-magnetic core and a leakage reactance of greater than 0.2 per unit.
A cord-securing mechanism comprising: a base portion comprising a first surface, a second surface, a thickness extending between the first surface and the second surface, and an aperture extending entirely through the thickness and from the first surface to the second surface, wherein the aperture includes an aperture surface that circumscribes, and forms a perimeter around, the aperture; wherein an aperture rim is positioned at a transition between the aperture surface and the first surface; and wherein the aperture includes an axis; and a cord-securing portion coupled to the first surface, the cord-securing portion including at least a pair of cord-retaining surfaces that oppose one another and that are spaced apart by a cord-receiving slot, wherein cord-retaining surfaces of the at least the pair of cord-retaining surfaces extend from the first surface in a direction aligned parallel with the axis and extend radially away from the aperture rim, and wherein the cord-retaining surfaces extend radially away from the aperture rim, wherein the cord-retaining surfaces are spaced apart by a first distance at a first position and by a second distance at a second position, and wherein the first distance is greater than the second distance, such that the cord-receiving slot is narrower at the second position. a base portion comprising a first surface, a second surface, a thickness extending between the first surface and the second surface, and an aperture extending entirely through the thickness and from the first surface to the second surface, wherein the aperture includes an aperture surface that circumscribes, and forms a perimeter around, the aperture; wherein an aperture rim is positioned at a transition between the aperture surface and the first surface; and wherein the aperture includes an axis; and a cord-securing portion coupled to the first surface, the cord-securing portion including at least a pair of cord-retaining surfaces that oppose one another and that are spaced apart by a cord-receiving slot, wherein cord-retaining surfaces of the at least the pair of cord-retaining surfaces extend from the first surface in a direction aligned parallel with the axis and extend radially away from the aperture rim, and wherein the cord-retaining surfaces extend radially away from the aperture rim,
An anti-CSF-1R antibody having a heavy chain comprising the sequence given in SEQ ID NO:27 and a light chain comprising the sequence given in SEQ ID NO:19.
A method for upgrading firmware of a device having a universal controlling application, comprising: moving instructions and data used by a secondary processor of the device having the universal controlling application from a memory associated with the secondary processor to a set top box to provide freed memory space; storing in the freed memory space of the memory associated with the secondary processor a received firmware upgrade; validating the received firmware upgrade; transferring the validated received firmware upgrade from the memory associated with the secondary processor to a memory associated with a primary processor of device having the universal controlling application; retrieving from the set top box the instructions and data used by a secondary processor of the device; and storing the retrieved instructions and data used by a secondary processor of the device in the memory associated with the secondary processor device. moving instructions and data used by a secondary processor of the device having the universal controlling application from a memory associated with the secondary processor to a set top box to provide freed memory space; storing in the freed memory space of the memory associated with the secondary processor a received firmware upgrade; validating the received firmware upgrade; transferring the validated received firmware upgrade from the memory associated with the secondary processor to a memory associated with a primary processor of device having the universal controlling application; retrieving from the set top box the instructions and data used by a secondary processor of the device; and storing the retrieved instructions and data used by a secondary processor of the device in the memory associated with the secondary processor device.
A high-strength, high-toughness steel wire rod comprising: aluminum (Al) in a range of 0.07 wt% to 0.14 wt%; and nitrogen, wherein Al:N (where Al and N denote a wt% of each element) is in a range of 15:1 to 25:1; a sum of Ti, Nb, and V contents is 0.01 wt% or less; and the steel wire rod comprising 0.15 wt% to 0.3 wt% of carbon, 0.05 wt% to 0.15 wt% of silicon(Si), 1.0 wt% to 3.0 wt% of manganese (Mn), 0.02 wt% or less of phosphorous, or 0.02 wt% or less of sulfur, the balance of iron and unavoidable imparities. aluminum (Al) in a range of 0.07 wt% to 0.14 wt%; and nitrogen, wherein Al:N (where Al and N denote a wt% of each element) is in a range of 15:1 to 25:1; a sum of Ti, Nb, and V contents is 0.01 wt% or less; and the steel wire rod comprising 0.15 wt% to 0.3 wt% of carbon, 0.05 wt% to 0.15 wt% of silicon(Si), 1.0 wt% to 3.0 wt% of manganese (Mn), 0.02 wt% or less of phosphorous, or 0.02 wt% or less of sulfur, the balance of iron and unavoidable imparities.
A crossed-loop electron paramagnetic resonance resonator assembly comprising a first resonator having a first resonator axis; and a second resonator having a second resonator axis, wherein the first resonator axis and the second resonator axis are substantially perpendicular, wherein both the first resonator and the second resonator comprise a ribbon resonator having a plurality of metallic ribbons formed in a loop, wherein each metallic ribbon includes a central axis, and wherein the plurality of metallic ribbons are arranged parallel relative one to another, wherein each ribbon resonator comprises two elongated metallic strips (305, 310) coupled to the metallic ribbons of the ribbon resonator, wherein the two elongated metallic strips (305, 310) are disposed parallel to the central axis of the metallic ribbons. a first resonator having a first resonator axis; and a second resonator having a second resonator axis, wherein the first resonator axis and the second resonator axis are substantially perpendicular, wherein both the first resonator and the second resonator comprise a ribbon resonator having a plurality of metallic ribbons formed in a loop, wherein each metallic ribbon includes a central axis, and wherein the plurality of metallic ribbons are arranged parallel relative one to another, wherein each ribbon resonator comprises two elongated metallic strips (305, 310) coupled to the metallic ribbons of the ribbon resonator, wherein the two elongated metallic strips (305, 310) are disposed parallel to the central axis of the metallic ribbons.
An antigen-presenting system comprising one or more influenza virus antigens in combination with a papaya mosaic virus (PapMV) or a VLP comprising PapMV coat protein, wherein said one or more influenza virus antigens are not conjugated to said PapMV or VLP.
A laser sensor module for interference based particle detection comprising a Vertical Cavity Surface Emitting Laser, an electro-optical modulator and a light detector, wherein the Vertical Cavity Surface Emitting Laser comprises a first electrical contact, a second electrical contact and an optical resonator, wherein the optical resonator comprises a first distributed Bragg reflector, a second distributed Bragg reflector and an active layer arranged between the first distributed Bragg reflector and the second distributed Bragg reflector, wherein the Vertical Cavity Surface Emitting Laser is arranged to emit laser light during operation of the Vertical Cavity Surface Emitting Laser, wherein the electro-optical modulator is integrated in the optical resonator, wherein the electro-optical modulator is arranged to tune a resonance frequency of the optical resonator by means of an electrical tuning voltage applied to the electro-optical modulator, wherein the light detector is arranged to detect an optical response in reaction to the laser light emitted by the Vertical Cavity Surface Emitting Laser and scattered or reflected back into the Vertical Cavity Surface Emitting Laser, wherein the tuning voltage is arranged such that a detection signal received by the light detector, which is caused by a macroscopic object positioned in a range between a threshold distance and a detection range of the particle sensor module, is reduced, when the tuning voltage is provided, in comparison to a detection signal caused by the macroscopic object at the same position, when the tuning voltage is not provided.
Distributor device for solids-containing liquids, comprising: - a distributor chamber with an inlet opening which issues into a chamber interior space of the distributor chamber, - a first perforated blade disk with a plurality of outlet openings which connect the chamber interior space to a plurality of connection ports, - a blade drive shaft which is mounted so as to be able to rotate about a drive shaft axis, - a first eccentric member which is connected to the blade drive shaft and defines a first eccentric axis spaced apart from the drive shaft axis, and - a first cutting blade which is connected to the first eccentric member and has a cutting edge which lies against the first perforated blade disk and can be moved relative to the first perforated blade disk by means of the first eccentric member, characterised in that a counterweight member is connected to the blade drive shaft, the centre of gravity of which is arranged eccentrically with respect to the drive shaft axis, preferably offset by 180° with respect to the eccentric shaft axis. - a distributor chamber with an inlet opening which issues into a chamber interior space of the distributor chamber, - a first perforated blade disk with a plurality of outlet openings which connect the chamber interior space to a plurality of connection ports, - a blade drive shaft which is mounted so as to be able to rotate about a drive shaft axis, - a first eccentric member which is connected to the blade drive shaft and defines a first eccentric axis spaced apart from the drive shaft axis, and - a first cutting blade which is connected to the first eccentric member and has a cutting edge which lies against the first perforated blade disk and can be moved relative to the first perforated blade disk by means of the first eccentric member,
A method of manufacturing a facing element for a reinforced soil structure, the method comprising: arranging a void former in a mold, the void former including at least one insert made of flexible material, wherein the at least one insert forms a loop around a core region within the mold; adding casting material in a fluid state into the mold such that the casting material fills a predefined volume for the facing element, the predefined volume including the core region; letting the casting material harden to form the facing element; and removing the facing element from the mold and the at least one insert from the facing element, wherein the facing element comprises an anchoring core formed by the hardened casting material in the core region, and wherein removing the at least one insert comprises pulling the at least one insert away from a rear surface of the facing element, the flexible material of the at least one insert being deformed around the anchoring core while it is pulled. arranging a void former in a mold, the void former including at least one insert made of flexible material, wherein the at least one insert forms a loop around a core region within the mold; adding casting material in a fluid state into the mold such that the casting material fills a predefined volume for the facing element, the predefined volume including the core region; letting the casting material harden to form the facing element; and removing the facing element from the mold and the at least one insert from the facing element, wherein the facing element comprises an anchoring core formed by the hardened casting material in the core region, and wherein removing the at least one insert comprises pulling the at least one insert away from a rear surface of the facing element, the flexible material of the at least one insert being deformed around the anchoring core while it is pulled.
A method to control a road vehicle comprising a drivetrain provided with a servo-assisted transmission for the execution of a multiple downshift in the servo-assisted transmission; the control method comprising the steps of: detecting a condition of slowing down of the road vehicle and, simultaneously, detecting a driver's request for a multiple downshift; and carrying out, in succession, a plurality of downshifts while the road vehicle is slowing down and in an autonomous manner regardless of further interventions of the driver; the control method is characterized in that it comprises the further steps of: determining a duration of a single shift time interval (Δt) common to all the plurality of downshifts; and carrying out each downshift following a first downshift when said shift time interval (Δt) has elapsed exactly since the previous downshift. detecting a condition of slowing down of the road vehicle and, simultaneously, detecting a driver's request for a multiple downshift; and carrying out, in succession, a plurality of downshifts while the road vehicle is slowing down and in an autonomous manner regardless of further interventions of the driver; the control method is characterized in that it comprises the further steps of: determining a duration of a single shift time interval (Δt) common to all the plurality of downshifts; and carrying out each downshift following a first downshift when said shift time interval (Δt) has elapsed exactly since the previous downshift. determining a duration of a single shift time interval (Δt) common to all the plurality of downshifts; and carrying out each downshift following a first downshift when said shift time interval (Δt) has elapsed exactly since the previous downshift.
An electronic device, comprising: at least one electronic part; and an electroformed housing constructed from a unibody metal shell that completely encloses the at least one electronic part and retaining structures that retain the at least one electronic part within the electroformed housing when a mandrel is removed from the electroformed housing. at least one electronic part; and an electroformed housing constructed from a unibody metal shell that completely encloses the at least one electronic part and retaining structures that retain the at least one electronic part within the electroformed housing when a mandrel is removed from the electroformed housing.
A method for enriching for target sequences from a population of nucleic acids, comprising: (a) combining in solution, a population of nucleic acids and a target isolation probe wherein the target isolation probe comprises an affinity binding domain; (b) permitting a single stranded region of the target isolation probe to hybridize to all or a portion of a target sequence in the population of nucleic acids; (c) selectively immobilizing the hybridized nucleic acids from the population containing the target sequences by associating the target isolation probe with a capture domain and removing unbound material; (d) once the hybridised nucleic acids have been selectively immobilized, subsequently removing from the 3' end of the target sequence, a non-target sequence by means of one or more 3' single strand specific exonucleases; and (e) attaching an adaptor to the nucleic acid after step (d), wherein the attaching comprises ligation. (a) combining in solution, a population of nucleic acids and a target isolation probe wherein the target isolation probe comprises an affinity binding domain; (b) permitting a single stranded region of the target isolation probe to hybridize to all or a portion of a target sequence in the population of nucleic acids; (c) selectively immobilizing the hybridized nucleic acids from the population containing the target sequences by associating the target isolation probe with a capture domain and removing unbound material; (d) once the hybridised nucleic acids have been selectively immobilized, subsequently removing from the 3' end of the target sequence, a non-target sequence by means of one or more 3' single strand specific exonucleases; and (e) attaching an adaptor to the nucleic acid after step (d), wherein the attaching comprises ligation.
A method performed by a moving cell base station to transmit a synchronization signal in a wireless communication system, the method comprising: mapping, by the moving cell base station, a moving cell synchronization signal sequence, generated on a basis of a Zadoff-Chu sequence having a prescribed index assigned to be dedicated to a moving cell, to a frequency region; and transmitting, by the moving cell base station, the mapped moving cell synchronization signal sequence, wherein the moving cell synchronization signal sequence is mapped to a frequency region different from a prescribed frequency region used for transmitting a synchronization signal for a user equipment unsupportive of the moving cell, and wherein the moving cell base station prevents making a handover to another moving cell by using information on the prescribed index assigned to be dedicated to the moving cell. mapping, by the moving cell base station, a moving cell synchronization signal sequence, generated on a basis of a Zadoff-Chu sequence having a prescribed index assigned to be dedicated to a moving cell, to a frequency region; and transmitting, by the moving cell base station, the mapped moving cell synchronization signal sequence, wherein the moving cell synchronization signal sequence is mapped to a frequency region different from a prescribed frequency region used for transmitting a synchronization signal for a user equipment unsupportive of the moving cell, and wherein the moving cell base station prevents making a handover to another moving cell by using information on the prescribed index assigned to be dedicated to the moving cell.
A process comprising: - supplying a printing substrate; - simultaneously making contact with one longitudinal end of the printing substrate, on one face by means of a first surface and a second surface of a creaser, mutually angled, and on another face of the longitudinal end of the printing substrate by means of a first extension and a second extension of a counter creaser, mutually angled, forming a crease by the joint action of the creaser and the counter creaser; and - subsequently moving the printing substrate by a support table to a printing area defined by the location of printing heads of a digital printing machine, wherein the crease runs transversally to an advance direction of the support table, and the printing substrate is suctioned flat onto the support table by an aspiration assembly. - supplying a printing substrate; - simultaneously making contact with one longitudinal end of the printing substrate, on one face by means of a first surface and a second surface of a creaser, mutually angled, and on another face of the longitudinal end of the printing substrate by means of a first extension and a second extension of a counter creaser, mutually angled, forming a crease by the joint action of the creaser and the counter creaser; and - subsequently moving the printing substrate by a support table to a printing area defined by the location of printing heads of a digital printing machine, wherein the crease runs transversally to an advance direction of the support table, and the printing substrate is suctioned flat onto the support table by an aspiration assembly.
A hydraulic transmission adapted to transmit power utilizing a flow of fluid, comprising a driven member and a vibration damping device, that is adapted to damp vibrations resulting from a pulsation of torque applied to a rotary member, rotated integrally with the driven member, by an oscillating motion of a rolling member connected with the rotary member while being allowed to rotate relatively therewith, the vibration damping device comprising: a casing member (29, 30) enclosing the rolling member; a sealing member (31, 32) that connects the casing member (29, 30) with the rotary member in a manner such that the rotary member is allowed to rotate relatively with the casing member (29, 30), while preventing oil from entering into an inner space of the casing member (29, 30) where the rolling member is held to oscillate; and an elastic member (31, 32) configured to reduce a phase shift between the rotary member and the casing member (29, 30) rotating relatively with each other. a casing member (29, 30) enclosing the rolling member; a sealing member (31, 32) that connects the casing member (29, 30) with the rotary member in a manner such that the rotary member is allowed to rotate relatively with the casing member (29, 30), while preventing oil from entering into an inner space of the casing member (29, 30) where the rolling member is held to oscillate; and an elastic member (31, 32) configured to reduce a phase shift between the rotary member and the casing member (29, 30) rotating relatively with each other.