mhurhangee/patent-ind-claim-en huggingface dataset:
A system for moving a tubular string within a subterranean well , the system characterised by : a ring assembly including: a structural ring sized with a ring inner diameter to circumscribe the tubular string and a ring outer diameter to fit within a bore of the subterranean well ; a rotatable blade extending from the structural ring ; and wheels spaced around an inner diameter surface of the structural ring . a structural ring sized with a ring inner diameter to circumscribe the tubular string and a ring outer diameter to fit within a bore of the subterranean well ; a rotatable blade extending from the structural ring ; and wheels spaced around an inner diameter surface of the structural ring .
Container for receiving a cleaning agent and/or a fragrance substance for a concealed cistern with an inspection opening , to which is assigned a mounting frame defining an opening, wherein the container can be inserted into the interior of the concealed cistern , wherein the container has lateral surfaces and a spring-elastic and/or flexible region , which connects a first section comprising a base of the container to a second section defining an opening of the container , wherein, by means of an external force application on the container , said container can be transferred from a first state into a second state and wherein the container is compacted in the second state by means of the spring-elastic and/or flexible region such that at least one outer dimension of the container is shortened with respect to the first state, characterised in that the lateral surfaces of the container are partially spared such that at least one part of the respective lateral surface encompassing the second section of the container engages into at least one part of the respective lateral surface encompassing the first section of the container when the container is compacted.
A container for substrates, the container defining a substrate storage area adapted to receive a plurality of stacked substrates, the container comprising: a base including an upwardly extending side wall , the side wall being disposed to at least partially surround the substrate storage area, the base including at least one resilient latching member extending upwardly from the base , the latching member including an engagement portion having a substantially downwardly facing engagement surface; a cover including a downwardly extending side wall , the cover cooperating with the base to at least partially surround the substrate storage area; and at least one deflectable corner flange operably coupled to the cover and extending radially outwardly relative to the side wall of the cover , the deflectable corner flange being constructed and arranged to be deflectable downwardly relative to the cover , the deflectable corner flange defining an aperture adapted to receive the latching member , the deflectable corner flange defining an upper surface adapted to engage the engagement portion of the latching member to latch the cover with respect to the base . a base including an upwardly extending side wall , the side wall being disposed to at least partially surround the substrate storage area, the base including at least one resilient latching member extending upwardly from the base , the latching member including an engagement portion having a substantially downwardly facing engagement surface; a cover including a downwardly extending side wall , the cover cooperating with the base to at least partially surround the substrate storage area; and at least one deflectable corner flange operably coupled to the cover and extending radially outwardly relative to the side wall of the cover , the deflectable corner flange being constructed and arranged to be deflectable downwardly relative to the cover , the deflectable corner flange defining an aperture adapted to receive the latching member , the deflectable corner flange defining an upper surface adapted to engage the engagement portion of the latching member to latch the cover with respect to the base .
A snap connector configured to be electrically and mechanically connectable to an electrical terminal, wherein the snap connector comprises: a body comprising an insulating material ; respective first and second electrical contacts separated by the insulating material ; and resistive material configured to provide a direct current connection for the flow of electric current between the first and second electrical contacts , wherein a layer of the resistive material is provided on at least a part of the external surface of the body , and the insulating material is arranged to guide the flow of electric current between the first and second electrical contacts through the resistive material . a body comprising an insulating material ; respective first and second electrical contacts separated by the insulating material ; and resistive material configured to provide a direct current connection for the flow of electric current between the first and second electrical contacts , wherein a layer of the resistive material is provided on at least a part of the external surface of the body , and the insulating material is arranged to guide the flow of electric current between the first and second electrical contacts through the resistive material .
An active aerodynamic assembly comprising: a lift gate formed by connecting together an inner panel and an outer pane l; at least one cavity formed between the inner panel and the outer panel ; an aperture to the at least one cavity formed through a portion of the outer panel ; at least one D pillar arrangement including a moveable D pillar positionable within the at least one cavity and aligned with the aperture , wherein the at least one moveable D pillar is moveable between a stowed position, where the at least one moveable D pillar is located within the at least one cavity and a deployed position, where a portion of the D pillar extends through the aperture past the outer panel of the lift gate ; and an actuator positioned in the at least one cavity , wherein the actuator is connected the at least one D pillar arrangement and moves the D pillar arrangement between the stowed position and the deployed position. a lift gate formed by connecting together an inner panel and an outer pane l; at least one cavity formed between the inner panel and the outer panel ; an aperture to the at least one cavity formed through a portion of the outer panel ; at least one D pillar arrangement including a moveable D pillar positionable within the at least one cavity and aligned with the aperture , wherein the at least one moveable D pillar is moveable between a stowed position, where the at least one moveable D pillar is located within the at least one cavity and a deployed position, where a portion of the D pillar extends through the aperture past the outer panel of the lift gate ; and an actuator positioned in the at least one cavity , wherein the actuator is connected the at least one D pillar arrangement and moves the D pillar arrangement between the stowed position and the deployed position.
A microporous polyolefin film where one or more layers are laminated, wherein the microporous polyolefin film comprises a polyethylene layer having a maximum pore diameter of 0.083 μ m or less, which is measured by a bubble point method; wherein the microporous polyolefin film has a thickness of 5-40 μ m, a porosity of 30∼60%, and a puncture strength of 0.25N/ μ m to 0.60N/ μ m; wherein the microporous film has a time to permeate gas in the range from 50 to 340 sec/(100 cc x 20 μ m); and wherein a quality factor of the microporous film, which is defined by Equation 1 below, is 20gf/(sec/100cc) or greater: Quality Factor Q = S / P × HS S: puncture strength (gf) P: time to permeate gas (Gurley, sec/100cc) HS: shrinkage ratio (%) in transverse direction at 130°C for 1 hour. S: puncture strength (gf) P: time to permeate gas (Gurley, sec/100cc) HS: shrinkage ratio (%) in transverse direction at 130°C for 1 hour.
Method for the setting of ornamental stones (P) in jewelry products (O, O'), costume jewelry and the like, which comprises the following steps: - introduction of the stone (P) in a first seat formed on said product (O, O'), said seat having an opening and a plurality of abutment seats ; - insertion of locking means through a respective second through seat , and until said locking means abut on said stone (P); and - locking of said locking means within said second seat realizing the locking of said stone (P) within said seat , wherein said locking means are a pin and wherein said first seat inside has an asymmetrical shape and it has at least one second seat hole in communication with the outside of the product (O) and ending at a lower region of the seat , and the pin abuts on said stone (P) with the inserting end and wherein following the insertion of said locking means up to abutment with said stone (P) said means move said stone (P) until abutment into said abutment seats within said first seat and the locking of said locking means within said second seat prevents the removal of said stone (P) from said first seat both in the direction of insertion of the former in the latter and in the opposite direction. - introduction of the stone (P) in a first seat formed on said product (O, O'), said seat having an opening and a plurality of abutment seats ; - insertion of locking means through a respective second through seat , and until said locking means abut on said stone (P); and - locking of said locking means within said second seat realizing the locking of said stone (P) within said seat ,
A flame retardant containing an aromatic phosphoric acid ester represented by the general formula (I): wherein R 1 to R 4 , R 7 , and R 8 each independently represent a C 1-4 alkyl group or a C 1-4 alkoxy group; R 5 , R 6 , and R 9 each independently represent a C 1-10 alkyl group or a C 1-10 alkoxy group; n represents an integer of 1 to 10; n 1 and n 2 each independently represent an integer of 0 to 3; m 1 and m 2 each independently represent an integer of 0 to 4; p represents an integer of 0 to 26; and k represents an integer of 1 to 12; and when p is 2 or more, any two substituents R 9 may be bonded to each other, and may be bonded to a carbon atom(s) of a ring to which the above substituents R 9 are bonded, forming another ring.
An apparatus for signal processing, the apparatus comprising: a prediction model established by machine learning in which ECG signals of a sample acquired with an ECG meter are used as teaching data, and model input signals obtained by performing a specified processing including passing through a high-pass filter with a cutoff frequency of 0.5 Hz or a band-pass filter with a pass band of frequency 0.5 Hz to 40 Hz, or differentiating on ballistocardiac signals of the same sample which are acquired with a piezoelectric sensor simultaneously with the said ECG signals to obtain beating vibration signals; and a prediction unit that outputs predicted ECG, pECG, signals predicted by the said prediction model upon input of model input signals obtained by performing the said specified processing on ballistocardiac signals acquired from a subject under prediction with the said piezoelectric sensor . a prediction model established by machine learning in which ECG signals of a sample acquired with an ECG meter are used as teaching data, and model input signals obtained by performing a specified processing including passing through a high-pass filter with a cutoff frequency of 0.5 Hz or a band-pass filter with a pass band of frequency 0.5 Hz to 40 Hz, or differentiating on ballistocardiac signals of the same sample which are acquired with a piezoelectric sensor simultaneously with the said ECG signals to obtain beating vibration signals; and a prediction unit that outputs predicted ECG, pECG, signals predicted by the said prediction model upon input of model input signals obtained by performing the said specified processing on ballistocardiac signals acquired from a subject under prediction with the said piezoelectric sensor .
A router system comprising: a control plane subsystem located on a first device ; and a plurality of data plane subsystems configured to forward data packets, the plurality of data plane subsystems including a first data plane subsystem and a second data plane subsystem, the first data plane subsystem located on a second device and the second data plane subsystem located on a third device ; wherein the control plane subsystem is configured to: receive an instruction; determine an action based upon the instruction; communicate a message corresponding to the action to the first data plane subsystem; and communicate the message corresponding to the action to the second data plane subsystem; wherein the first data plane subsystem is a software data plane subsystem executed by the second device and is configured to perform processing corresponding to the action; wherein the second data plane subsystem is a hardware data plane subsystem comprising forwarding hardware and located on the third device and is configured to perform processing corresponding to the action; and wherein the control plane subsystem communicates the message to the first data plane subsystem and the second data plane subsystem using a control channel . a control plane subsystem located on a first device ; and a plurality of data plane subsystems configured to forward data packets, the plurality of data plane subsystems including a first data plane subsystem and a second data plane subsystem, the first data plane subsystem located on a second device and the second data plane subsystem located on a third device ; wherein the control plane subsystem is configured to: receive an instruction; determine an action based upon the instruction; communicate a message corresponding to the action to the first data plane subsystem; and communicate the message corresponding to the action to the second data plane subsystem; receive an instruction; determine an action based upon the instruction; communicate a message corresponding to the action to the first data plane subsystem; and communicate the message corresponding to the action to the second data plane subsystem; wherein the first data plane subsystem is a software data plane subsystem executed by the second device and is configured to perform processing corresponding to the action; wherein the second data plane subsystem is a hardware data plane subsystem comprising forwarding hardware and located on the third device and is configured to perform processing corresponding to the action; and wherein the control plane subsystem communicates the message to the first data plane subsystem and the second data plane subsystem using a control channel .
A hard taco shell comprising: a first sidewall ; a second sidewall ; and a first arcuate line of depressions (520-522) extending up both the first and second sidewalls. a first sidewall ; a second sidewall ; and a first arcuate line of depressions (520-522) extending up both the first and second sidewalls.
A yaw system for a wind turbine , the wind turbine having a tower and a nacelle , the yaw system adapted for rotating the nacelle about a yaw axis with respect to the tower , the yaw system comprising: a yaw bearing comprising an outer bearing ring , an inner bearing ring , and a plurality of yaw rollers rotationally disposed between the outer and inner bearing rings so as to allow relative motion between the outer and inner bearing rings ; characterised in that the yaw system further comprises a bi-directional braking assembly comprising an outer clutch ring attached to the outer bearing ring , an inner clutch ring attached to the inner bearing ring , a plurality of brake rollers rotationally and slidably disposed between the inner clutch ring and at least one locking ramp adjacent the outer clutch ring , a plurality of spring members , and an activation ring for slidably positioning the plurality of brake rollers into one of a locked position or unlocked position; and, in that the bi-directional braking assembly further comprises at least one of a plurality of ring projections or a plurality of activation projections with at least one of the plurality of spring members extending from each ring projection or activation projection to bias one of the plurality of brake rollers toward the locked position, thereby permitting relative motion between the inner clutch ring and the outer clutch ring in a first rotational direction while simultaneously preventing relative motion of the inner clutch ring and the outer clutch ring in an opposing second rotational direction when rotational torque is applied to the activation ring . a yaw bearing comprising an outer bearing ring , an inner bearing ring , and a plurality of yaw rollers rotationally disposed between the outer and inner bearing rings so as to allow relative motion between the outer and inner bearing rings ; characterised in that the yaw system further comprises a bi-directional braking assembly comprising an outer clutch ring attached to the outer bearing ring , an inner clutch ring attached to the inner bearing ring , a plurality of brake rollers rotationally and slidably disposed between the inner clutch ring and at least one locking ramp adjacent the outer clutch ring , a plurality of spring members , and an activation ring for slidably positioning the plurality of brake rollers into one of a locked position or unlocked position; and, in that the bi-directional braking assembly further comprises at least one of a plurality of ring projections or a plurality of activation projections with at least one of the plurality of spring members extending from each ring projection or activation projection to bias one of the plurality of brake rollers toward the locked position, thereby permitting relative motion between the inner clutch ring and the outer clutch ring in a first rotational direction while simultaneously preventing relative motion of the inner clutch ring and the outer clutch ring in an opposing second rotational direction when rotational torque is applied to the activation ring .
A lighting control circuit , comprising: - a controller for generating a first drive signal (V3), a second drive signal (V4) and a reference voltage (V5), the second drive signal (V4) being temporally non-overlapping with respect to the first drive signal (V3); - a current source coupleable to deliver a current (I ou t) to a first LED and a second LED , wherein the current (Iout) is proportional to the reference voltage (V5) so that a desired value of the current (Iout) is achieved when the reference voltage (V5) has a high value; - a first switch configured to switch from an open position, when driven by the first drive signal (V3) having a low value, to a closed position when driven by the first drive signal (V3) having a high value, wherein the first switch is positioned to interrupt current flow (I ou t) through the first LED when the first switch is in the open position; and - a second switch configured to switch from an open position, when driven by the second drive signal (V4) having a low value, to a closed position when driven by the second drive signal (V4) having a high value, wherein the second switch is positioned to interrupt current flow (I ou t) through the second LED when the second switch is in the open position, wherein the controller is arranged to generate the high value of the reference voltage (V5) only after one of the first drive signal (V3) and the second drive signal (V4) has the high value. - a controller for generating a first drive signal (V3), a second drive signal (V4) and a reference voltage (V5), the second drive signal (V4) being temporally non-overlapping with respect to the first drive signal (V3); - a current source coupleable to deliver a current (I ou t) to a first LED and a second LED , wherein the current (Iout) is proportional to the reference voltage (V5) so that a desired value of the current (Iout) is achieved when the reference voltage (V5) has a high value; - a first switch configured to switch from an open position, when driven by the first drive signal (V3) having a low value, to a closed position when driven by the first drive signal (V3) having a high value, wherein the first switch is positioned to interrupt current flow (I ou t) through the first LED when the first switch is in the open position; and - a second switch configured to switch from an open position, when driven by the second drive signal (V4) having a low value, to a closed position when driven by the second drive signal (V4) having a high value, wherein the second switch is positioned to interrupt current flow (I ou t) through the second LED when the second switch is in the open position,
Device for facilitating entry and exit to and from a vehicle, especially for wheelchair users, with a ramp which can be accommodated in a non-use position in a housing under a floor surface of the vehicle and which can be extended out of the housing for use, wherein, for transfer into a use position, a vehicle-facing, vehicle-side transverse edge of the ramp can be raised to the level of the floor surface by at least one lever mechanism having a carriage , which can be displaced in the housing , a slide and an erecting lever by virtue of the slide assigned to the carriage being movable relative to the carriage for the purpose of pivoting the respective erecting lever , characterized in that the erecting lever of the or each lever mechanism is mounted pivotably on the carriage , which can be displaced in the housing , there is assigned to each carriage a double-armed tilting lever which is mounted such that it can tilt or rotate on the respective carriage , and the respective tilting lever is connected via at least one coupling arm to the respective erecting lever at a pivot pin between its two lever arms.