mhurhangee/patent-ind-claim-en huggingface dataset:
A self-locking floor covering element which comprises, on the one hand, a lower face intended to rest on the floor, on the other hand, an upper face , opposite the lower face , and whereupon people or vehicles are required to circulate, further on the other hand, lateral sides (4; 4a; 4b; 4c), which extend between the lower face and the upper face , and, also on the other hand, at least one distancing means , which equips at least one of the lateral sides (4; 4a; 4b; 4c), which projects relative to said at least one of the lateral sides (4; 4a; 4b; 4c), which is configured to hold another adjacent floor covering element at a determined distance, and which comprises at least, on the one hand, a lower portion , on the other hand, an upper portion which has a width less than the width of the lower portion , further on the other hand, an intermediate portion , which extends between the lower portion and the upper portion , which connects the lower portion and the upper portion , and which comprises lateral faces (80; 80;) which converge from the lower portion and toward the upper portion , said at least one distancing means also on the other hand comprising a distal part which is intended to come to be positioned at least near another adjacent self-locking floor covering element and, also on the other hand, a proximal part , which is interposed between the distal part and said at least one of the lateral sides (4; 4a; 4b; 4c), which extends from said at least one of the lateral sides (4; 4a; 4b; 4c), and which comprises at least one narrower part which has a width smaller than the width of the distal part , the width being considered along a direction parallel to the lower face , parallel to the upper face , and parallel to a lateral plane along which said at least one of the lateral sides (4; 4a; 4b; 4c) extends, characterized in that at least the lower portion of said at least one distancing means comprises said distal part as well as said proximal part which comprises said at least one narrower part .
Decorative multi-layer surface covering comprising a wear layer said wear layer comprising a polymer blend, said polymer blend comprising: - from 20 to 80% by weight, preferably from 25 to 75% by weight, more preferably from 30 to 70% by weight of polylactic acid (i); - from 80 to 20% by weight, preferably from 75 to 25% by weight, more preferably from 70 to 30% by weight of one or more (meth)acrylate comprising polymer(s) (ii) or of a mixture of one or more (meth)acrylate comprising polymer(s) and one or more vinyl alkanoate comprising polymer(s) (iii); the total amount of polymer in the polymer blend representing 100% by weight. - from 20 to 80% by weight, preferably from 25 to 75% by weight, more preferably from 30 to 70% by weight of polylactic acid (i); - from 80 to 20% by weight, preferably from 75 to 25% by weight, more preferably from 70 to 30% by weight of one or more (meth)acrylate comprising polymer(s) (ii) or of a mixture of one or more (meth)acrylate comprising polymer(s) and one or more vinyl alkanoate comprising polymer(s) (iii);
A seal assembly of a gas turbine engine , comprising a seal nose configured to be in sealing contact with a rotating seal plate ; and a bellows (110, 410A. 410B, 410C, 510A, 510B, 510C) extending between and coupling the seal nose to a support structure , characterised by a plurality of bristles extending from the support structure toward the bellows (110, 410A. 410B, 410C, 510A, 510B, 510C), wherein at least one bristle of the plurality of bristles is in contact with the bellows (110, 410A. 410B, 410C, 510A, 510B, 510C) to damp vibration of the bellows (110, 410A. 410B, 410C, 510A, 510B, 510C).
A secondary battery cell transfer apparatus for a process of folding a secondary battery cell, the secondary battery cell transfer apparatus comprising: multiple stations disposed at an equal interval and sequentially disposed in a straight process direction so as to perform a process of folding a sealing region of a secondary battery cell; tables provided in the multiple stations, respectively, and configured to vacuum-grip and support the secondary battery cell from below the secondary battery cell; transfer bars provided in the multiple stations, respectively, and configured to vacuum-grip the secondary battery cell from below the secondary battery cell and transfer the secondary battery cell between the first station and the second station arranged continuously in the process direction, the transfer bar being configured to vacuum-grip the secondary battery cell, which is supported by the table in the first station, from below the secondary battery cell, move the secondary battery cell upward, and then move the secondary battery cell to the second station straight, and the transfer bar being configured to move downward, so that the secondary battery cell is seated on the table of the second station, and then return to a position of the first station; vacuum gripping units provided in the table and the transfer bar, respectively, and configured to selectively apply vacuum gripping force to the secondary battery cell; a lifting unit configured to operate a lifting operation of the transfer bar; and a straight transfer drive unit configured to operate a straight reciprocating motion of the transfer bar. multiple stations disposed at an equal interval and sequentially disposed in a straight process direction so as to perform a process of folding a sealing region of a secondary battery cell; tables provided in the multiple stations, respectively, and configured to vacuum-grip and support the secondary battery cell from below the secondary battery cell; transfer bars provided in the multiple stations, respectively, and configured to vacuum-grip the secondary battery cell from below the secondary battery cell and transfer the secondary battery cell between the first station and the second station arranged continuously in the process direction, the transfer bar being configured to vacuum-grip the secondary battery cell, which is supported by the table in the first station, from below the secondary battery cell, move the secondary battery cell upward, and then move the secondary battery cell to the second station straight, and the transfer bar being configured to move downward, so that the secondary battery cell is seated on the table of the second station, and then return to a position of the first station; vacuum gripping units provided in the table and the transfer bar, respectively, and configured to selectively apply vacuum gripping force to the secondary battery cell; a lifting unit configured to operate a lifting operation of the transfer bar; and a straight transfer drive unit configured to operate a straight reciprocating motion of the transfer bar.
Apparatus for evaluating the viability of cultured samples, the apparatus comprising at least one independently accessible module including a culturing chamber adapted for incubating a plurality of samples in a controlled environment, the at least one module being operatively associated with a light source and a movable optical inspection means adapted for motion about a viewing axis through the module wherein the movable optical inspection means is located external to the controlled environment and is adapted for motion by means of an elliptical-rotating objective lens system to enable a sweeping of viewing area that incorporates each of the plurality of samples.
A system including a drone equipped with motors and connected by a wire to a docking station equipped with a landing pad and a frame : - the landing pad being movable relative to the frame , - the mobility of the landing pad being exerted during landing of the drone , - the mobility of the landing pad being ensured by a deformable element, either the pad itself, or by a deformable element connecting the platform to the frame , - such that under the effect of an impact during landing, the deformable element (32 or 33) takes up part of the impact energy, the system further comprising: - a drum for winding the wire ; - at least one positioning sensor of the drone and the docking station; - at least one accelerometer sensor and at least one anemometric sensor on the drone and on the docking station; - a control device configured to servo-control a position of the drone relative to the docking station, and to servo-control a pitch attitude of the drone, as a function of the measurements from the sensors, the system being configured, during a landing phase, to: i) stop the servo-control of the position of the drone, ii) control a thrust of the motors greater than the weight of the drone , iii) control a servo-control of the pitch attitude of the drone , iv) control a pull on the wire with the winding drum of the wire to bring the drone back to the pad , the system being such that the landing pad has a convex shape, that the drone has a landing body , and that this landing body has a concave shape. - the landing pad being movable relative to the frame , - the mobility of the landing pad being exerted during landing of the drone , - the mobility of the landing pad being ensured by a deformable element, either the pad itself, or by a deformable element connecting the platform to the frame , - such that under the effect of an impact during landing, the deformable element (32 or 33) takes up part of the impact energy, - a drum for winding the wire ; - at least one positioning sensor of the drone and the docking station; - at least one accelerometer sensor and at least one anemometric sensor on the drone and on the docking station; - a control device configured to servo-control a position of the drone relative to the docking station, and to servo-control a pitch attitude of the drone, as a function of the measurements from the sensors, i) stop the servo-control of the position of the drone, ii) control a thrust of the motors greater than the weight of the drone , iii) control a servo-control of the pitch attitude of the drone , iv) control a pull on the wire with the winding drum of the wire to bring the drone back to the pad ,
An IC module comprising: a sheet-like base having a first surface and a second surface and having a first through hole and a second through hole spaced apart from the first through hole; an IC chip provided to the first surface, having a contact communication function and a contactless communication function, and having a first terminal and a second terminal formed thereon; a contact terminal portion provided on the second surface and configured to contact an external contact machine; characterized by a connecting coil formed on the first surface and having a first end and a second end , wherein the connecting coil is looped three times around the IC chip and the first through hole , and the second through hole is formed outside the connecting coil ; bridge wiring provided to the second surface, provided at a position overlapping with the first through hole and the second through hole as viewed in a thickness direction of the base, and electrically insulated from the contact terminal portion; a first conductive wire inserted through the first through hole and connecting the first terminal of the IC chip to the bridge wiring; a second conductive wire inserted through the second through hole and connecting the bridge wiring to the first end of the connecting coil; and a third conductive wire connecting the second end of the connecting coil to the second terminal of the IC chip. a sheet-like base having a first surface and a second surface and having a first through hole and a second through hole spaced apart from the first through hole; an IC chip provided to the first surface, having a contact communication function and a contactless communication function, and having a first terminal and a second terminal formed thereon; a contact terminal portion provided on the second surface and configured to contact an external contact machine; characterized by a connecting coil formed on the first surface and having a first end and a second end , wherein the connecting coil is looped three times around the IC chip and the first through hole , and the second through hole is formed outside the connecting coil ; bridge wiring provided to the second surface, provided at a position overlapping with the first through hole and the second through hole as viewed in a thickness direction of the base, and electrically insulated from the contact terminal portion; a first conductive wire inserted through the first through hole and connecting the first terminal of the IC chip to the bridge wiring; a second conductive wire inserted through the second through hole and connecting the bridge wiring to the first end of the connecting coil; and a third conductive wire connecting the second end of the connecting coil to the second terminal of the IC chip.
An arrangement for detecting a downhole drilling event during a drilling operation by a drill pipe being partially surrounded by a tubular , wherein the arrangement comprises: a sensors holder to be mounted inside of the tubular and to be mounted to surround part of the drill pipe ; a plurality of sensors (8-11) for sensing sensor data indicative of downhole drilling events, wherein at least part of the sensors (8-11) is mounted on the sensors holder ; and a processor configured for processing the sensor data to thereby detect a downhole drilling event, wherein the arrangement comprises a mounting fixture connected to the sensors holder and connected to the tubular , characterized in that the mounting fixture is resiliently connected to the sensors holder . a sensors holder to be mounted inside of the tubular and to be mounted to surround part of the drill pipe ; a plurality of sensors (8-11) for sensing sensor data indicative of downhole drilling events, wherein at least part of the sensors (8-11) is mounted on the sensors holder ; and a processor configured for processing the sensor data to thereby detect a downhole drilling event, wherein the arrangement comprises a mounting fixture connected to the sensors holder and connected to the tubular , characterized in that the mounting fixture is resiliently connected to the sensors holder .
A processor-implemented method for visual marker decoding for managing occlusion in Unmanned Aerial Vehicle (UAV) navigation, said method comprising: capturing, via one or more hardware processors, at least one image of visual marker on a target, by an image capturing module of the UAV , wherein the visual marker comprises a binary code representing information pertaining to at least the target and a set of parity codes embedded around the binary code; determining, via the one or more hardware processors, whether entire area of the visual marker is covered in the captured image, by an image processing module of the UAV ; recovering, via the one or more hardware processors, a missing area of the visual marker, if the entire area of the visual marker is found to be not visible in the captured image, by said image processing module , wherein recovering the missing area of the visual marker comprises extracting parity code corresponding to at least a part of the binary code encoded in the captured image and reconstructing remaining binary code of the missing area of the visual marker based on the extracted parity code; and navigating the UAV automatically, via the one or more hardware processors, based on at least one data decoded from the visual marker after recovering the missing area of the visual marker, by a navigation module of the UAV . capturing, via one or more hardware processors, at least one image of visual marker on a target, by an image capturing module of the UAV , wherein the visual marker comprises a binary code representing information pertaining to at least the target and a set of parity codes embedded around the binary code; determining, via the one or more hardware processors, whether entire area of the visual marker is covered in the captured image, by an image processing module of the UAV ; recovering, via the one or more hardware processors, a missing area of the visual marker, if the entire area of the visual marker is found to be not visible in the captured image, by said image processing module , wherein recovering the missing area of the visual marker comprises extracting parity code corresponding to at least a part of the binary code encoded in the captured image and reconstructing remaining binary code of the missing area of the visual marker based on the extracted parity code; and navigating the UAV automatically, via the one or more hardware processors, based on at least one data decoded from the visual marker after recovering the missing area of the visual marker, by a navigation module of the UAV .
Method for determining the position of a rotor of a permanently magnetic synchronous motor in a servo drive, in which a field-oriented control is provided for determining the rotor position, in which a current test signal is injected and the rotor position is determined from the resulting current, wherein the permanently magnetic synchronous motor is brought to saturation, a defined voltage/current curve is then superimposed on the resulting voltage/current, the resulting change in inductance (L) is detected and from that the position of the rotor is determined, wherein the pattern (20 to 23) of the inductance is determined as a function of the rotor position when the rotor is energized and compared with stored values, wherein the stored values contain the position errors (Δφ) of the rotor and the current values required to compensate for this position error, preferably in the form of a table, and a device is provided for correcting the saturation-related position error (Δφ), wherein the position of a current pointer , which is taken into account in the saturation current, is determined by means of the injected test signal via the resultant measured current, wherein the device sends out a signal (φ*) which results from the test signal and displays the current position of the rotor and identifies the position error (Δφ), and which tracks the stator field to the rotating rotor in order to compensate for the position error (Δφ), characterized in that the permanently magnetic synchronous motor is currentcontrolled when it is brought to saturation, and in that the rotor is brought to saturation in a currentcontrolled manner once against and once in the direction of the rotor magnetic field.
Path-controlled press, comprising: at least one drive shaft with an entrainer eccentric relative to a shaft axis (W), and a slide block , wherein the slide block is driven by the entrainer to execute a constrained motion, wherein the slide block during execution of a press stroke is guided at at least one thrust-side slide surface relative to a thrust-side surface of a guide , wherein the slide block has a draw-side slide surface which is opposite the thrust-side slide surface and which is guided at a draw-side surface of the guide, wherein the thrust-side slide surface at the slide block has a concave or convex curvature, wherein the draw-side slide surface of the slide block has a respectively different concave or convex curvature, characterised in that an ejecting mechanism , which is mounted to be stationary relative to the guide , with an ejector movable relative to the guide and acting on a workpiece is provided, wherein the ejection mechanism is actuated by the movement of the slide block . at least one drive shaft with an entrainer eccentric relative to a shaft axis (W), and a slide block , wherein the slide block is driven by the entrainer to execute a constrained motion, wherein the slide block during execution of a press stroke is guided at at least one thrust-side slide surface relative to a thrust-side surface of a guide , wherein the slide block has a draw-side slide surface which is opposite the thrust-side slide surface and which is guided at a draw-side surface of the guide, wherein the thrust-side slide surface at the slide block has a concave or convex curvature, wherein the draw-side slide surface of the slide block has a respectively different concave or convex curvature, characterised in that an ejecting mechanism , which is mounted to be stationary relative to the guide , with an ejector movable relative to the guide and acting on a workpiece is provided, wherein the ejection mechanism is actuated by the movement of the slide block .
A road finisher or a feeder comprising: a primary drive generating waste heat, a cooling device of the primary drive and one or a plurality of machine components , wherein at least one of the machine components is arranged in a housing , wherein the housing includes at least one flow passage , through which ambient air can be sucked so that an air current (S) is created, which is variably adjustable automatically, wherein wall elements of the housing are configured as double-walled elements, the wall elements thereby comprising an inner wall and an outer wall defining the flow passage, wherein the inner wall defines an internal space that accommodates the machine component characterized in that the one or the plurality of machine components are arranged in the area of the primary drive , that only the wall elements facing the primary drive are configured as double-walled elements, and that the ambient air can be sucked through the flow passage using underpressure, wherein the cooling device of the primary drive is provided for generating the pressure difference that creates the air current (S). a primary drive generating waste heat, a cooling device of the primary drive and one or a plurality of machine components , wherein at least one of the machine components is arranged in a housing , wherein the housing includes at least one flow passage , through which ambient air can be sucked so that an air current (S) is created, which is variably adjustable automatically, wherein wall elements of the housing are configured as double-walled elements, the wall elements thereby comprising an inner wall and an outer wall defining the flow passage, wherein the inner wall defines an internal space that accommodates the machine component characterized in that the one or the plurality of machine components are arranged in the area of the primary drive , that only the wall elements facing the primary drive are configured as double-walled elements, and that the ambient air can be sucked through the flow passage using underpressure, wherein the cooling device of the primary drive is provided for generating the pressure difference that creates the air current (S).
A method of configuring an elevator management device , the method comprising the steps of (A) issuing a predetermined series of commands to perform a corresponding series of elevator system functions; (B) for each of the series of elevator system functions, automatically determining a respective portion of an elevator controller that is active during a corresponding one of the activated series of elevator system functions; (C) automatically generating information including a relationship between the respective portions of the elevator controller and the corresponding ones of the activated series of elevator system functions; and (D) configuring the elevator management device to communicate with the elevator controller based on the information. (A) issuing a predetermined series of commands to perform a corresponding series of elevator system functions; (B) for each of the series of elevator system functions, automatically determining a respective portion of an elevator controller that is active during a corresponding one of the activated series of elevator system functions; (C) automatically generating information including a relationship between the respective portions of the elevator controller and the corresponding ones of the activated series of elevator system functions; and (D) configuring the elevator management device to communicate with the elevator controller based on the information.