mhurhangee/patent-ind-claim-en huggingface dataset:
A motor device of a high-voltage switchgear, comprising a DC brushless motor , wherein the motor device further comprises a drive and control device and a decelerator device ; the DC brushless motor includes a rotor and a stator ; the rotor is sleeved in the stator and mounted in a motor housing ; both ends of the rotor are respectively sleeved with a rolling bearing , and the bearing is sleeved on a motor drive shaft ; the drive and control device comprises a microprocessor , a semiconductor switch and a power supply module for supplying power to the microprocessor ; the microprocessor is adapted to control the start, stop, and forward rotation and reverse rotation of the DC brushless motor via the semiconductor switch ; the decelerator comprises a gear transmission system composed of a plurality of mutually meshing gears as well as an output shaft , and the gear transmission system is adapted to transmit motion of the motor drive shaft to the output shaft , wherein the drive and control device includes a monitoring module configured to detect an external command signal input by the motor input signal controller , and a position signal for the circuit breaker, an opened/closed state signal for the circuit breaker and an opening/closing signal for a ground knife switch, wherein the monitoring module is adapted to constantly scan the opening/closing signal for the knife switch and the opening/closing signal for the circuit breaker during the operation of the motor device for the high-voltage switchgear. comprising a DC brushless motor , wherein the motor device further comprises a drive and control device and a decelerator device ; the DC brushless motor includes a rotor and a stator ; the rotor is sleeved in the stator and mounted in a motor housing ; both ends of the rotor are respectively sleeved with a rolling bearing , and the bearing is sleeved on a motor drive shaft ; the drive and control device comprises a microprocessor , a semiconductor switch and a power supply module for supplying power to the microprocessor ; the microprocessor is adapted to control the start, stop, and forward rotation and reverse rotation of the DC brushless motor via the semiconductor switch ; the decelerator comprises a gear transmission system composed of a plurality of mutually meshing gears as well as an output shaft , and the gear transmission system is adapted to transmit motion of the motor drive shaft to the output shaft , wherein the drive and control device includes a monitoring module configured to detect an external command signal input by the motor input signal controller , and a position signal for the circuit breaker, an opened/closed state signal for the circuit breaker and an opening/closing signal for a ground knife switch, wherein the monitoring module is adapted to constantly scan the opening/closing signal for the knife switch and the opening/closing signal for the circuit breaker during the operation of the motor device for the high-voltage switchgear.
A resonator for a laser comprising: a first resonator wall ; a second resonator wall that is separated from the first resonator wall in a transverse direction thereby defining a gap between the first and second resonator walls; a lasing medium disposed in the gap; a first mirror disposed at a first end of the first and second resonator walls; a second mirror disposed at a second end of the first and second resonator walls, wherein the first and second mirror cooperate to fold an intra-cavity laser beam along a plurality of paths through the lasing medium; wherein the plurality of paths define a boundary of a superfluous region within the resonator, wherein the intra-cavity laser beam does not pass through the superfluous region; and wherein the first mirror and the second mirror form a laser resonator for a parasitic laser mode , a portion of which is located within the superfluous region, and a parasitic mode suppressor that is located within the superfluous region of the resonator, is disposed between the first end of the first resonator wall and the first mirror and is substantially the same shape as the superfluous region. a first resonator wall ; a second resonator wall that is separated from the first resonator wall in a transverse direction thereby defining a gap between the first and second resonator walls; a lasing medium disposed in the gap; a first mirror disposed at a first end of the first and second resonator walls; a second mirror disposed at a second end of the first and second resonator walls, wherein the first and second mirror cooperate to fold an intra-cavity laser beam along a plurality of paths through the lasing medium; wherein the plurality of paths define a boundary of a superfluous region within the resonator, wherein the intra-cavity laser beam does not pass through the superfluous region; and wherein the first mirror and the second mirror form a laser resonator for a parasitic laser mode , a portion of which is located within the superfluous region, and a parasitic mode suppressor that is located within the superfluous region of the resonator, is disposed between the first end of the first resonator wall and the first mirror and is substantially the same shape as the superfluous region.
A method of a User Equipment, in the following also referred to as UE, the method comprising: keeping a dedicated Preconfigured Uplink Resources, in the following also referred to as PUR, configuration when the UE is in Radio Resource Control, in the following also referred to as RRC, idle state and a serving cell of the UE is a second cell, wherein the UE is configured with the dedicated PUR configuration in a first cell different than the second cell ; selecting a third cell during a RRC connection re-establishment procedure ; and responsive to the selecting the third cell, determining whether or not to release the dedicated PUR configuration based upon whether or not the third cell is the same as the first cell, wherein the determining whether or not to release the dedicated PUR configuration is performed when the UE is in RRC connected state , characterized by further comprising: keeping the dedicated PUR configuration responsive to receiving a RRCConnectionReconfiguration message comprising a mobilityControlInfo information element if the RRCConnectionReconfiguration message does not comprise fullConfig. and releasing the dedicated PUR configuration responsive to receiving the RRCConnectionReconfiguration message comprising the mobilityControlInfo information if the RRCConnectionReconfiguration message comprises fullConfig , wherein a fourth cell indicated by the mobilityControlInfo information element is different than the first cell. keeping a dedicated Preconfigured Uplink Resources, in the following also referred to as PUR, configuration when the UE is in Radio Resource Control, in the following also referred to as RRC, idle state and a serving cell of the UE is a second cell, wherein the UE is configured with the dedicated PUR configuration in a first cell different than the second cell ; selecting a third cell during a RRC connection re-establishment procedure ; and responsive to the selecting the third cell, determining whether or not to release the dedicated PUR configuration based upon whether or not the third cell is the same as the first cell, wherein the determining whether or not to release the dedicated PUR configuration is performed when the UE is in RRC connected state , characterized by further comprising: keeping the dedicated PUR configuration responsive to receiving a RRCConnectionReconfiguration message comprising a mobilityControlInfo information element if the RRCConnectionReconfiguration message does not comprise fullConfig. and releasing the dedicated PUR configuration responsive to receiving the RRCConnectionReconfiguration message comprising the mobilityControlInfo information if the RRCConnectionReconfiguration message comprises fullConfig , wherein a fourth cell indicated by the mobilityControlInfo information element is different than the first cell.
A node state detection method by a node state detection device for detecting a running state of a target node of at least two nodes included in a non-network positioning system , the at least two nodes being located in different positions within the system respectively and both sending a wireless signal, wherein the method comprises: a) acquiring signal data, the signal data comprising data of at least one wireless signal received by a data acquisition terminal during one movement within the system in which the data acquisition terminal passes through a coverage range of the target node during the movement; b) determining whether the acquired signal data has a feature which is conform to a feature indicated by a standard signal feature information; and c) determining the running state of the target node according to a determination result, d1) wherein the standard signal feature information is used for indicating: a feature of data of at least one wireless signal from the target node received by the data acquisition terminal and/or another at least one data acquisition terminal , when the target node is in a normal running state; wherein d2) the standard signal feature information comprises visible node signal feature information used for indicating: a feature of data of at least one wireless signal from the target node received by the data acquisition terminal and/or another at least one data acquisition terminal when passing through at least one visible node (A, B) of the target node when the target node is in the normal running state, wherein a visible node of the target node refers to a node for which the target node is visible. a) acquiring signal data, the signal data comprising data of at least one wireless signal received by a data acquisition terminal during one movement within the system in which the data acquisition terminal passes through a coverage range of the target node during the movement; b) determining whether the acquired signal data has a feature which is conform to a feature indicated by a standard signal feature information; and c) determining the running state of the target node according to a determination result, d1) wherein the standard signal feature information is used for indicating: a feature of data of at least one wireless signal from the target node received by the data acquisition terminal and/or another at least one data acquisition terminal , when the target node is in a normal running state; wherein d2) the standard signal feature information comprises visible node signal feature information used for indicating: a feature of data of at least one wireless signal from the target node received by the data acquisition terminal and/or another at least one data acquisition terminal when passing through at least one visible node (A, B) of the target node when the target node is in the normal running state, wherein a visible node of the target node refers to a node for which the target node is visible.
A surface acoustic wave resonator type vibration sensor, comprising a first antenna , a matching network , a reflection grating , and an interdigital transducer , with at least said reflection grating and said interdigital transducer assembled on a piezoelectric substrate , characterized in that the surface acoustic wave resonator type vibration sensor comprises an acceleration detection circuit and wherein said matching network comprises an optimal matching network which is composed of at least one capacitor (C1) and at least one inductor (L1), said optimal matching network connecting the acceleration detection circuit in parallel, said acceleration detection circuit comprising multiple branch circuits connected in parallel, and when a measured acceleration in one direction reaches a threshold, the acceleration detection circuit connects the branch circuit corresponding to this particular acceleration, whereby a different number of said multiple branch circuits are connected to said optimal matching network under different acceleration conditions; wherein each branch circuit comprises an elastic switch component (K1, K2, K3) and a capacitor (C2, C3) and/or an inductor (L2, L3) connected in series.
A method for re-pointing beams of at least two feeds disposed on a satellite, the method comprising: at least one of receiving and transmitting , with at least two feeds , electromagnetic, EM, energy towards a non-parabolic reflector , wherein reflected EM energy that is reflected from the non-parabolic reflector at least one of originates from and generates the at least two beams ; rotating , each of the at least two feeds , from a respective first angular position to a respective second angular position, such that each of the at least two beams shifts from a respective first coverage location to a respective second coverage location different from the first coverage location; and translating , at least one of the at least two feeds , from at least one first feed location to at least one second feed location, wherein the at least one first coverage location and the at least one second coverage location are located on Earth. at least one of receiving and transmitting , with at least two feeds , electromagnetic, EM, energy towards a non-parabolic reflector , wherein reflected EM energy that is reflected from the non-parabolic reflector at least one of originates from and generates the at least two beams ; rotating , each of the at least two feeds , from a respective first angular position to a respective second angular position, such that each of the at least two beams shifts from a respective first coverage location to a respective second coverage location different from the first coverage location; and translating , at least one of the at least two feeds , from at least one first feed location to at least one second feed location, wherein the at least one first coverage location and the at least one second coverage location are located on Earth.
Drying drum with a flame protection device for a burner in the drying drum of an asphalt plant producing an open burner flame, wherein the flame protection device has a central longitudinal axis and a plurality of slats , which are arranged in a circumferential arrangement in the circumferential direction in relation to the central longitudinal axis , wherein slats arranged adjacently in the circumferential direction are sealed by means of a circumferential gap seal such that material to be dried in the drying drum is prevented from unintentionally falling into the burner flame, wherein slats arranged adjacently in the circumferential direction have sealing elements facing each another, wherein the sealing elements are integrally moulded and designed as bent edges of the slats , wherein the slats have a flame protection section pointing to the central longitudinal axis , wherein the flame protection section is flat, and the sealing elements adjoin the flame protection section at the side, characterised in that - the flame protection device has throw plates , which are arranged concentrically in relation to the central longitudinal axis in the drying drum , - the throw plates are arranged in a flame region of the drying drum , - the throw plates are designed to carry the material to be dried along a material conveying direction when the drying drum rotates about its axis of rotation , the throw plates are arranged radially outwards with respect to the slats in the radial direction relative to the axis of rotation . wherein slats arranged adjacently in the circumferential direction have sealing elements facing each another, wherein the sealing elements are integrally moulded and designed as bent edges of the slats , wherein the slats have a flame protection section pointing to the central longitudinal axis , wherein the flame protection section is flat, and the sealing elements adjoin the flame protection section at the side, characterised in that - the flame protection device has throw plates , which are arranged concentrically in relation to the central longitudinal axis in the drying drum , - the throw plates are arranged in a flame region of the drying drum , - the throw plates are designed to carry the material to be dried along a material conveying direction when the drying drum rotates about its axis of rotation , the throw plates are arranged radially outwards with respect to the slats in the radial direction relative to the axis of rotation . - the flame protection device has throw plates , which are arranged concentrically in relation to the central longitudinal axis in the drying drum , - the throw plates are arranged in a flame region of the drying drum , - the throw plates are designed to carry the material to be dried along a material conveying direction when the drying drum rotates about its axis of rotation , the throw plates are arranged radially outwards with respect to the slats in the radial direction relative to the axis of rotation .
A method for preparing a silver impregnation solution comprising: (a) charging a neutralization reactor R1 with an aqueous organic amine; (b) adding oxalic acid powder through a first feeding conduit to the neutralization reactor R1 to obtain an aqueous oxalic acid-organic amine solution; (c) directing the aqueous oxalic acid-organic amine solution from the neutralization reactor to a complexation reactor R2; (d) adding particulate silver oxide through a second feeding conduit to the complexation reactor R2 to obtain a silver impregnation solution; and, optionally, (e) subjecting the silver impregnation solution to filtration. (a) charging a neutralization reactor R1 with an aqueous organic amine; (b) adding oxalic acid powder through a first feeding conduit to the neutralization reactor R1 to obtain an aqueous oxalic acid-organic amine solution; (c) directing the aqueous oxalic acid-organic amine solution from the neutralization reactor to a complexation reactor R2; (d) adding particulate silver oxide through a second feeding conduit to the complexation reactor R2 to obtain a silver impregnation solution; and, optionally, (e) subjecting the silver impregnation solution to filtration.
Method for determining at least one characteristic for optimizing a wear position of a pair of spectacles on the face of a wearer , said optimizing characteristic comprising a geometrico-morphological characteristic (EG, ED, HD, HG), a postural characteristic (α) and a behavioural characteristic, said pair of spectacles comprising a frame and two lenses , the method comprising steps of: a) illuminating at least part of the head of the wearer using an infrared light source ; b) acquiring, via an infrared image sensor , an image of the head of the wearer illuminated by the infrared light source , in which image the pair of spectacles and the eyes of the wearer appear; c) locating, in the image acquired in step b), glass-reflections of the infrared light source reflected by the two lenses of the pair of spectacles , and at least one corneal reflection of the infrared light source reflected by one of the two eyes of the wearer ; and d) deducing, with a processing unit : - said postural characteristic (α) depending on the positions of the glass-reflections in said image , - said behavioural characteristic depending on said postural characteristic (α), and - said geometrico-morphological characteristic (EG, ED, HD, HG) depending on the position of said corneal reflection in said image . a) illuminating at least part of the head of the wearer using an infrared light source ; b) acquiring, via an infrared image sensor , an image of the head of the wearer illuminated by the infrared light source , in which image the pair of spectacles and the eyes of the wearer appear; c) locating, in the image acquired in step b), glass-reflections of the infrared light source reflected by the two lenses of the pair of spectacles , and at least one corneal reflection of the infrared light source reflected by one of the two eyes of the wearer ; and d) deducing, with a processing unit : - said postural characteristic (α) depending on the positions of the glass-reflections in said image , - said behavioural characteristic depending on said postural characteristic (α), and - said geometrico-morphological characteristic (EG, ED, HD, HG) depending on the position of said corneal reflection in said image . - said postural characteristic (α) depending on the positions of the glass-reflections in said image , - said behavioural characteristic depending on said postural characteristic (α), and - said geometrico-morphological characteristic (EG, ED, HD, HG) depending on the position of said corneal reflection in said image .
A wearable sitting posture assisting device , having two leg units , each comprising an upper support designed to receive a weight force of a person, each having a seat unit , a lower support designed to transmit the weight force to a ground , a joint pivotably connecting the upper support and the lower support to each other, and having a blocking means to block the joint , wherein the seat unit comprises at least one sitting means designed to form an adjustable and/or self-adjusting seat surface to be used in at least one at least partly sitting posture and in a walking mode, and wherein the seat unit comprises a frame means designed to receive a weight force of a person sitting on the sitting means that is mounted on the frame means , characterized in that the seat unit comprises at least one rotatable connection between the sitting means and the frame means designed to adjust an orientation at least of a portion of the sitting means with respect to the frame means .
Agricultural soil working machine, in particular a sower, comprising a transport chassis for road transport, which comprises an attachment carrier for attachment to the soil working machine , and at least one wheel carrier , which carries at least one chassis wheel , and the wheel carrier is mounted on the attachment carrier so as to be vertically movable, wherein a preload device is provided for preloading the wheel carrier downwards towards the ground, wherein the wheel carrier is configured as a swingarm, which is suspended so as to be pivotable on the attachment carrier about a horizontal swingarm pivot axis oriented transversely to the travel direction, wherein the preload device is configured to rotationally preload the swingarm, and comprises at least one hydraulic or pneumatic suspension strut, which is supported in a hinged manner on the swingarm at one end and on the attachment carrier at the other end so as to be spaced apart from the swingarm pivot axis , and a pressure accumulator for applying pressure medium to the suspension strut independently of a tractor pressure medium supply, characterised in that the attachment carrier comprises detachable fastening means for detachably, rigidly fastening the transport chassis to a machine frame , from which soil working tools are suspended, and for dismounting the transport chassis for working fields, wherein the at least one chassis wheel is suspended from the preloaded, tiltable swingarm such that it can be steered about an upright control shaft , which swingarm carries said control shaft , wherein the preload device including the suspension strut and the pressure accumulator is attached between the swingarm and the attachment carrier and thus not to the steerable part of the wheel suspension, and together with the transport chassis forms an assembly, which can be dismounted from the machine frame together as a unit by detaching the fastening means of the attachment carrier .