mhurhangee/ep-ind-claims huggingface dataset:
A solar plant having at least one pivotable module table (2a, 2b, 2c) which supports at least one photovoltaic solar module, preferably multiple photovoltaic solar modules, and is coupled in such a manner to at least one gear element pivotable about an axis that pivoting the gear element causes the module table (2a to 2c) to be pivoted so that the solar modules track the motion of the sun, the gear element being driven and thus pivoted by an electrically driven drive shaft, at least one actuation element being integrated in the drive shaft, the gear element being both driven and blocked by the actuation element, the actuation element engaging into the toothing of the gear element for driving or blocking the gear element, characterized in that the actuation element comprises at least two actuation pins (9a, 9b) which are disposed essentially parallel to each other and engage into the toothing of the gear element in order to drive (pivot) or block the gear element, preferably both actuation pins (9a, 9b) each resting in a tooth space, in particular in adjacent tooth spaces (12a, 12b, 12c), of the toothing of the gear element and remaining there for blocking the gear element.
A stud pin to be embedded in a pin embedding hole provided in a tread portion of a pneumatic tire, the stud pin comprising: a tip having a tip end surface configured to contact a road surface; and a trunk portion holding the tip and extending in one direction; the trunk portion including: an upper flange fixing the tip at a first end of the trunk portion; and a lower flange provided at a position of the trunk portion on a side opposite the upper flange; an edge defining a peripheral shape of the lower flange, when the lower flange is viewed in an extending direction of the trunk portion, having: a first side of a shape protruding roundly toward an outer side of the lower flange, protruding in a first direction A orthogonal to the extending direction of the trunk portion, and a second side provided on an opposite side to the first side with respect to a tip disposal position where the tip is provided, the second side extending in a second direction B orthogonal to the first direction A and the extending direction, and being provided with a recess that is recessed toward an inner side of the lower flange; wherein the edge of the lower flange includes a pair of third sides extending in the first direction that connect the first side and the second side; and a first distance L1 between connection points that connect the third sides and the first side is shorter than a second distance L2 between connection points that connect the third sides and the second side, characterized in that the second distance L2 is not less than 1.05 times and not greater than 1.3 times the first distance L1. a tip having a tip end surface configured to contact a road surface; and a trunk portion holding the tip and extending in one direction; an upper flange fixing the tip at a first end of the trunk portion; and a lower flange provided at a position of the trunk portion on a side opposite the upper flange; a first side of a shape protruding roundly toward an outer side of the lower flange, protruding in a first direction A orthogonal to the extending direction of the trunk portion, and a second side provided on an opposite side to the first side with respect to a tip disposal position where the tip is provided, the second side extending in a second direction B orthogonal to the first direction A and the extending direction, and being provided with a recess that is recessed toward an inner side of the lower flange; wherein the edge of the lower flange includes a pair of third sides extending in the first direction that connect the first side and the second side; and a first distance L1 between connection points that connect the third sides and the first side is shorter than a second distance L2 between connection points that connect the third sides and the second side, characterized in that the second distance L2 is not less than 1.05 times and not greater than 1.3 times the first distance L1.
A baseband unit, BBU of a base station, the BBU has a communication connection to a remote radio unit, RRU, the at least one remote radio unit has at least one standing wave detecting channel and a service transmit channel, and a working frequency of the standing wave detecting channel is the same as a working frequency of the service transmit channel, the standing wave detecting channel is a channel which receives a reflected signal from the service transmit channel, and the BBU comprises: a sending unit (801, 901), configured to send a correction signal to the RRU; a receiving unit (802, 902), configured to receive a correction signal looped back by an antenna, wherein the correction signal looped back by the antenna comprises a portion of the first correction signal transmitted by a service transmit channel of the RRU and reflected by an antenna connected to the RRU; and a correcting unit (803, 903), configured to calculate a correction coefficient of the service transmit channel according to the correction signal looped back by the antenna, wherein the correcting unit is further configured to: when it is determined that quality of a first group of correction signals that are looped back by the antenna and received by the receiving unit is not reliable, acquire a second group of correction signals looped back by the antenna, and calculate the correction coefficient of each service transmit channel by using the acquired first group of correction signals looped back by the antenna and the acquired second group of correction signals looped back by the antenna, so as to perform the channel correction on each service transmit channel. a sending unit (801, 901), configured to send a correction signal to the RRU; a receiving unit (802, 902), configured to receive a correction signal looped back by an antenna, wherein the correction signal looped back by the antenna comprises a portion of the first correction signal transmitted by a service transmit channel of the RRU and reflected by an antenna connected to the RRU; and a correcting unit (803, 903), configured to calculate a correction coefficient of the service transmit channel according to the correction signal looped back by the antenna, wherein the correcting unit is further configured to: when it is determined that quality of a first group of correction signals that are looped back by the antenna and received by the receiving unit is not reliable, acquire a second group of correction signals looped back by the antenna, and calculate the correction coefficient of each service transmit channel by using the acquired first group of correction signals looped back by the antenna and the acquired second group of correction signals looped back by the antenna, so as to perform the channel correction on each service transmit channel.
Support assembly comprising a pipeline extending along a centre axis, a support clamp surrounding and supporting the pipeline, and at least one sound-damping damping element arranged at least partly between support clamp and pipeline, wherein the support clamp and the damping element are designed in such a manner that when the support clamp assumes the support diameter, in particular in the active region of the support clamp, a tolerance gap is present between damping element and pipeline, and wherein the pipeline comprises a stop face integrally moulded onto the pipeline and that the damping element comprises a support face on which the stop face is supported in such a manner that substantially an axial mounting in the direction of the centre axis is provided, characterized in that the diameter of the support clamp is variable to a support diameter; and in that the stop face and the support face are substantially formed identical in shape, wherein the diameter of the support face changes, with increasing distance from a plane, which extends at a right angle to the centre axis at the place of the minimum diameter of the support face, to a greater degree than the diameter of the stop face with identically increasing distance from said plane.
A dishwasher comprising a washing tub wherein the dishes to be washed are loaded; a sump which is disposed at the lower side of the washing tub and wherein the water in the washing tub is collected during the washing process; and a filtering mechanism which is disposed in the sump, which is cylindrical and which has a micro filter collecting the dirt in the water, and a coarse filter placed on the micro filter, the filtering mechanism having a conical guiding member hung at the base of the coarse filter so as to extend into the micro filter and guiding the water passing through the coarse filter towards the lateral wall of the micro filter characterized by a spacer which enables the guiding member to be attached to the coarse filter and which has a ring-shaped base and two opposite, parallel arms extending vertically upwards from the base.
An inventory tracking system for use in tracking articles received in a cabinet, the cabinet comprising a receptacle, a holder arranged in the receptacle and at least one metal substrate displaceably received in the holder, the at least one metal substrate being configured to receive at least one article carrying an RFID tag, the system comprising: at least one RFID read antenna assembly mountable to the at least one metal substrate, the at least one antenna assembly comprising at least one antenna coil and a high permeability layer; layer; an RFID tag interrogator configured to interrogate the RFID tag of the, or each, article received by the at least one metal substrate; and an electrical connector arrangement having complementary components carried by the holder and the at least one metal substrate for establishing, and breaking, an electrical connection between the interrogator and the at least read antenna assembly when the at least one metal substrate is inserted into, and removed from, the holder respectively, characterised in that: the holder of the cabinet comprises a frame arranged within the cabinet and a plurality of metal substrates, each in the form of a tray, tray, with the trays being arranged in spaced, removable, stacked relationship in the frame and each tray defining a plurality of discrete compartments in each of which an article carrying an RFID tag is receivable and in which the system comprises an RFID read antenna assembly associated with each compartment of each tray with the electrical connector arrangement being associated with each tray to facilitate interrogation of the RFID tag of each article in the cabinet by the RFID tag interrogator. at least one RFID read antenna assembly mountable to the at least one metal substrate, the at least one antenna assembly comprising at least one antenna coil and a high permeability layer; layer; an RFID tag interrogator configured to interrogate the RFID tag of the, or each, article received by the at least one metal substrate; and an electrical connector arrangement having complementary components carried by the holder and the at least one metal substrate for establishing, and breaking, an electrical connection between the interrogator and the at least read antenna assembly when the at least one metal substrate is inserted into, and removed from, the holder respectively,
A horizontal paddle dryer with a drum, in which a rotor with paddles is arranged as a part of an internal wall of the drum which is shaped in a concave way and where the retractable washing heads are arranged within the drum both in the drying phase and the washing phase. characterized in that the interior wall extends over the entire length of the drum on the upper part through two surfaces (1a, 1b) that extend tangentially to the interior wall into a horizontal final surface of the internal wall, such that a slightly concave part is created in the interior of the drum in the wall, in which concave part retractable washing heads are arranged that do not hinder functioning of the rotor with paddles.
An excavation tool (10, 110, 210, 310, 410, 510, 610) comprising an excavation bit (20, 120, 220, 320, 420, 520, 620) arranged on a tip portion of a casing pipe (15, 115, 215, 315, 415, 515, 615); a device (40, 140, 240, 340, 440, 540, 640) which is arranged inside the casing pipe (15, 115, 215, 315, 415, 515, 615) and the excavation bit (20, 120, 220, 320, 420, 520, 620) coaxial to an axis, and receives impact, thrust, and rotational force from an excavation apparatus, and a casing shoe (11, 111, 211, 311, 511, 611) fitted onto the outer peripheral portions of the excavation bit (20, 120, 220, 320, 420, 520, 620) and the device (40, 140, 240, 340, 440, 540, 640); wherein the device (40, 140, 240, 340, 440, 540, 640) has a discharge flute (46, 146, 246, 346, 446, 546, 646), which is for discharging waste rocks produced during excavation and is formed in the outer peripheral surface of the device along an axis toward a rear end side; and the device also has a fluid supply hole (49, 149, 249, 349, 449, 549, 649) which extends along the axis; wherein the excavation bit (20, 120, 220, 320, 420, 520, 620) includes a skirt portion (23, 123, 223, 323, 423, 523, 623) which receives the rotational force, thrust, and impact from the device (40, 140, 240, 340, 440, 540, 640); a fluid discharge hole (31, 131, 231, 331, 431, 531, 631), which is connected to the fluid supply hole (49, 149, 249, 349, 449, 549, 649) of the device (40, 140, 240, 340, 440, 540, 640) and is open into the tip face of the excavation bit (20, 120, 220, 320, 420, 520, 620); a face flute (27, 127, 227, 327, 427, 527, 627), which is formed in the tip face of the excavation bit (20, 120, 220, 320, 420, 520, 620) and extends radially outward; and a connection flute (28, 128, 228, 328, 428, 528, 628) which is integrally connected to an outer peripheral end of the face flute (27, 127, 227, 327, 427, 527, 627), and extends toward the axial rear end side; characterized in that the connection flute (28, 128, 228, 328, 428, 528, 628) is formed in an outer peripheral surface of the excavation bit (20, 120, 220, 320, 420, 520, 620), and an intake hole (29, 129, 229, 329, 429, 529, 629) is open from the connection flute (28, 128, 228, 328, 428, 528, 628) into the inner peripheral side of the skirt portion (23, 123, 223, 323, 423, 523, 623) and connected to the discharge flute (46, 146, 246, 346, 446, 546, 646) of the device (40, 140, 240, 340, 440, 540, 640), and a shield wall (35, 135, 235, 335, 435, 535, 635) which extends radially outward beyond the casing shoe (11, 111, 211, 311, 511, 611), is formed at the rear end of the connection flute (28, 128, 228, 328, 428, 528, 628).
A method performed by a source node, for establishing a requested connection between the source node (62, 69) and a destination node (63, 71) in a telecommunications network, the method comprising: generating a source application identifier for the connection within the source node; retrieving a source node identifier for the source node (62, 69); and transmitting the source application identifier and the source node identifier to the destination node (63, 71) to provide a source connection identifier for the requested connection between the source node (62, 69) and the destination node (63, 71); wherein at least one of the source node and destination node comprises a mobility management entity. generating a source application identifier for the connection within the source node; retrieving a source node identifier for the source node (62, 69); and transmitting the source application identifier and the source node identifier to the destination node (63, 71) to provide a source connection identifier for the requested connection between the source node (62, 69) and the destination node (63, 71);
An arrangement for suppressing interference of acoustic signals during ground sound location for locating faults in buried electrical lines by localizing repeating arc overs at fault sites by means of a connected impulse voltage device, the arrangement comprising a mobile receiver having an acoustic sensor and a magnetic field sensor for detecting simultaneously occurring magnetic pulses in the event of arc overs, a memory, an arithmetic logic unit and an evaluation unit, characterized in that the arrangement is set up to supply the detected acoustic pulses to the memory and offset the same with one or more previous acoustic pulses in the arithmetic logic unit by means of a computing algorithm, wherein the synchronization of the start times of the individual acoustic pulses takes place by means of the respectively associated detected magnetic pulse and the result from the arithmetic logic unit is supplied via the computing algorithm to the evaluation unit, and wherein the arithmetic logic unit is set up to use an averaging as algorithm for suppressing interference of the acoustic signals.
Method for venting a heat transfer medium of a heating device, comprising a heat exchanger, a pump for conveying the heat transfer medium and a sensor (7, 8) for detecting a characteristic value of the heat transfer medium, characterized by cyclically performing, when the pump is switched on, the processing steps of: (a) measuring the current characteristic value measured by the sensor (7, 8) (b) calculating the difference between the current characteristic value and a previously measured characteristic value (10, 11, 16), if it is already available (c) calculating the quotient of the difference and the time interval of the measurements forming the basis for the difference (d) terminating the method for venting as soon as the quotient exceeds a threshold value. (a) measuring the current characteristic value measured by the sensor (7, 8) (b) calculating the difference between the current characteristic value and a previously measured characteristic value (10, 11, 16), if it is already available (c) calculating the quotient of the difference and the time interval of the measurements forming the basis for the difference (d) terminating the method for venting as soon as the quotient exceeds a threshold value.
A robot cleaner comprising: a detecting unit for detecting a cleaning region or a not-yet-cleaned region in a cleaning target space; and a controller for setting the detected cleaning region and a new cleaning region in the detected not-yet-cleaned region and issuing a cleaning command, characterised in that when cleaning in the detected cleaning region is completed and a not-yet-cleaned region is adjacent to a cleaning completion spot in which the robot cleaner is located in the detected cleaning region, the controller controls the robot cleaner to move to the detected not-yet-cleaned region to clean it, wherein the detecting unit detects the surface of a wall (310, 320, 330) or a corner (620, 720) when the robot cleaner travels, and wherein the controller recognizes a corresponding travel region as the cleaning target space based on at least one of the number of non-detections of the surface of the wall (310, 320, 330) or the number of detections of the corner (620, 720). a detecting unit for detecting a cleaning region or a not-yet-cleaned region in a cleaning target space; and a controller for setting the detected cleaning region and a new cleaning region in the detected not-yet-cleaned region and issuing a cleaning command, characterised in that when cleaning in the detected cleaning region is completed and a not-yet-cleaned region is adjacent to a cleaning completion spot in which the robot cleaner is located in the detected cleaning region, the controller controls the robot cleaner to move to the detected not-yet-cleaned region to clean it, wherein the detecting unit detects the surface of a wall (310, 320, 330) or a corner (620, 720) when the robot cleaner travels, and wherein the controller recognizes a corresponding travel region as the cleaning target space based on at least one of the number of non-detections of the surface of the wall (310, 320, 330) or the number of detections of the corner (620, 720).
A system for a turbofan, the system comprising: a variable outer air seal including a plurality of individual segments; a single actuator coupled to the variable outer air seal; a sensor sensing an engine parameter; and a flight controller connected to the turbofan for receiving the parameter from the sensor; wherein the flight controller is configured to direct the actuator to regulate the position of the actuator based on the flight condition resulting from the received parameter; wherein the plurality of individual segments are joined by a series of links connecting adjacent segments, characterized in that: the single actuator is coupled to the variable outer air seal by a connecting rod; and each of said individual segments has a pin connection, each link of said series of links is connected to the pin connection of exactly two adjacent segments, and each link is connected to an adjacent link of the series of links by said pin connections. a variable outer air seal including a plurality of individual segments; a single actuator coupled to the variable outer air seal; a sensor sensing an engine parameter; and a flight controller connected to the turbofan for receiving the parameter from the sensor; wherein the flight controller is configured to direct the actuator to regulate the position of the actuator based on the flight condition resulting from the received parameter; wherein the plurality of individual segments are joined by a series of links connecting adjacent segments, characterized in that: the single actuator is coupled to the variable outer air seal by a connecting rod; and each of said individual segments has a pin connection, each link of said series of links is connected to the pin connection of exactly two adjacent segments, and each link is connected to an adjacent link of the series of links by said pin connections. the single actuator is coupled to the variable outer air seal by a connecting rod; and each of said individual segments has a pin connection, each link of said series of links is connected to the pin connection of exactly two adjacent segments, and each link is connected to an adjacent link of the series of links by said pin connections.
Pitched roof structure, comprising a plurality of panels (23, 24), preferably made of glass, and at least two rows of panels (21, 22), wherein an upper row of panels with upper panels extends beyond a lower row of panels with lower panels, wherein the panels (23, 24) are mounted on rafter support beams which are wedge-shaped, and that the rafter support beams of the upper row of panels project beyond the rafter support beams of the lower row of panels and wherein the rafter support beams have at least one anti-slip guard at their thicker ends to secure the panels against slipping down, characterised in that a transverse seal is arranged in the region of the overhang between at least one upper panel and at least one lower panel, which seal extends over the entire upper side of the lower panel and is clamped between the lower panel and the anti-slip guards of the rafter support beams of the upper panel, and in that the transverse seal has an attachment section for attachment to one of the panels (23, 24) and a spring section for abutment against the other panel (23, 24), wherein it is provided - that the transverse seal has no spring section in the region between the lower panel and the anti-slip guards of the rafter support beams of the upper panel, or - that the spring section in the region between the lower panel and the anti-slip guards of the rafter support beams of the upper panel is at least partially separated from the remaining spring section; so that the portion of the spring section located between two anti-slip guards is not clamped between the lower panel and the anti-slip guards. - that the transverse seal has no spring section in the region between the lower panel and the anti-slip guards of the rafter support beams of the upper panel, or - that the spring section in the region between the lower panel and the anti-slip guards of the rafter support beams of the upper panel is at least partially separated from the remaining spring section;