mhurhangee/patent-ind-claim-en huggingface dataset:
A modular construction system motor unit for a modular construction system , the motor unit comprising - a casing ; - an electrical motor mounted in the casing ; - a power outtake element having at least one connector for connecting to a construction element , and being rotationally connected relative to said casing about a rotational axis; - a gearing mechanism provided between the electrical motor and the power outtake element ; and - a rotation sensing mechanism configured for sensing the rotational position of the power outtake element relative to the casing , wherein the rotation sensing mechanism comprises a disc element rotating with the power outtake element and a sensor device being fixed relative to the casing, characterized in that the disc element is connected to the power outtake element or to a gear of the gear mechanism via a first rotation transfer part being fixedly connected to the disc element and a receptacle for receiving the first rotation transfer part , which receptacle is formed in the power outtake element or in said gear of the gear mechanism, and wherein the receptacle and the first rotation transfer part have cooperating shapes and sizes configured to allow a backlash between the power outtake element and the first rotation transfer part . - a casing ; - an electrical motor mounted in the casing ; - a power outtake element having at least one connector for connecting to a construction element , and being rotationally connected relative to said casing about a rotational axis; - a gearing mechanism provided between the electrical motor and the power outtake element ; and - a rotation sensing mechanism configured for sensing the rotational position of the power outtake element relative to the casing , wherein the rotation sensing mechanism comprises a disc element rotating with the power outtake element and a sensor device being fixed relative to the casing, characterized in that the disc element is connected to the power outtake element or to a gear of the gear mechanism via a first rotation transfer part being fixedly connected to the disc element and a receptacle for receiving the first rotation transfer part , which receptacle is formed in the power outtake element or in said gear of the gear mechanism, and wherein the receptacle and the first rotation transfer part have cooperating shapes and sizes configured to allow a backlash between the power outtake element and the first rotation transfer part .
Impact damper , in particular for a rail vehicle, comprising at least one deformation tube which is connected to an impact plate and, in the case of an impact event, is moved along a matrix having a conical forming surface , wherein the deformation tube has a cone region which is in overlap with the forming surface of the matrix , characterized in that the forming surface of the matrix and the cone region enclose a different angle (α; β) with respect to a movement axis of the deformation tube .
An apparatus comprising: a receiver comprising a port, the port comprising physical layer circuitry, PHY (820; 1830) the PHY configured to: receive, during a SKIP Ordered Set, SKP OS, interval, an ordered set, OS, from a link ; wherein the received OS comprises a first eight bytes and a second eight bytes; determine a correspondence of the first eight bytes of the received OS with bytes of known ordered sets; determine , by checking for five out of eight bytes matching with corresponding byte position, whether the received OS is a SKP OS , an electrical idle OS, EIOS or an electrical idle exit OS, EIEOS ; and if the received OS is determined to be a SKP OS, the PHY is configured to: read a second eight bytes of the received OS; determine that the second eight bytes of the received OS match a SKP_END OS when at least five bytes of the second eight bytes of the received OS matching a SKP_END OS; and process a PHY payload that follows the SKP_END. receive, during a SKIP Ordered Set, SKP OS, interval, an ordered set, OS, from a link ; wherein the received OS comprises a first eight bytes and a second eight bytes; determine a correspondence of the first eight bytes of the received OS with bytes of known ordered sets; determine , by checking for five out of eight bytes matching with corresponding byte position, whether the received OS is a SKP OS , an electrical idle OS, EIOS or an electrical idle exit OS, EIEOS ; and if the received OS is determined to be a SKP OS, the PHY is configured to: read a second eight bytes of the received OS; determine that the second eight bytes of the received OS match a SKP_END OS when at least five bytes of the second eight bytes of the received OS matching a SKP_END OS; and process a PHY payload that follows the SKP_END. read a second eight bytes of the received OS; determine that the second eight bytes of the received OS match a SKP_END OS when at least five bytes of the second eight bytes of the received OS matching a SKP_END OS; and process a PHY payload that follows the SKP_END.
An image forming apparatus comprising: a transfer unit configured to transfer an image onto an object by making contact with the object ; an attachment table to which the object is attached and that is configured to change a height thereof in accordance with force by which the transfer unit makes contact with the object ; and a transport unit configured to transport the attachment table to which the object has been attached along a transport path, the image forming apparatus being characterized by : further comprising a jig configured to fasten at least a portion of the object other than a surface on which an image is to be transferred, and in that the attachment table includes a fastener configured to position and fixes the jig , and a portion of the jig located on the front side in a transport direction in which the object is transported by the transport unit is inclined downward toward the front side in the transport direction. a transfer unit configured to transfer an image onto an object by making contact with the object ; an attachment table to which the object is attached and that is configured to change a height thereof in accordance with force by which the transfer unit makes contact with the object ; and a transport unit configured to transport the attachment table to which the object has been attached along a transport path, the image forming apparatus being characterized by : further comprising a jig configured to fasten at least a portion of the object other than a surface on which an image is to be transferred, and in that the attachment table includes a fastener configured to position and fixes the jig , and a portion of the jig located on the front side in a transport direction in which the object is transported by the transport unit is inclined downward toward the front side in the transport direction. further comprising a jig configured to fasten at least a portion of the object other than a surface on which an image is to be transferred, and in that the attachment table includes a fastener configured to position and fixes the jig , and a portion of the jig located on the front side in a transport direction in which the object is transported by the transport unit is inclined downward toward the front side in the transport direction.
A retractable component actuator , comprising: a first portion fixable to a fixed component and comprising a first engagement feature ; a second portion fixable to a retractable component and comprising a second engagement feature releasably supportable on the first engagement feature , wherein the second engagement feature is biased into supportable contact with the first engagement feature by gravity and wherein the second engagement feature is freely manually movable upwardly away from the first engagement feature ; and an automated drive mechanism operably coupled to the first portion and operable to move the first engagement feature upward and downward relative to the fixed component when the first portion is fixed to the fixed component ; wherein: downward movement of the second engagement feature relative to the first engagement feature is constrained by the first engagement feature ; upward movement of the second engagement feature relative to the first engagement feature is unconstrained by the first engagement feature ; and when the second engagement feature is supported on the first engagement feature and the first portion is fixed to the fixed component , the second engagement feature is upwardly and downwardly co-movable, relative to the fixed component , with the first engagement feature . a first portion fixable to a fixed component and comprising a first engagement feature ; a second portion fixable to a retractable component and comprising a second engagement feature releasably supportable on the first engagement feature , wherein the second engagement feature is biased into supportable contact with the first engagement feature by gravity and wherein the second engagement feature is freely manually movable upwardly away from the first engagement feature ; and an automated drive mechanism operably coupled to the first portion and operable to move the first engagement feature upward and downward relative to the fixed component when the first portion is fixed to the fixed component ; wherein: downward movement of the second engagement feature relative to the first engagement feature is constrained by the first engagement feature ; upward movement of the second engagement feature relative to the first engagement feature is unconstrained by the first engagement feature ; and when the second engagement feature is supported on the first engagement feature and the first portion is fixed to the fixed component , the second engagement feature is upwardly and downwardly co-movable, relative to the fixed component , with the first engagement feature . downward movement of the second engagement feature relative to the first engagement feature is constrained by the first engagement feature ; upward movement of the second engagement feature relative to the first engagement feature is unconstrained by the first engagement feature ; and when the second engagement feature is supported on the first engagement feature and the first portion is fixed to the fixed component , the second engagement feature is upwardly and downwardly co-movable, relative to the fixed component , with the first engagement feature .
A method for multi-carrier communications, comprising: receiving a plurality of access probes transmitted on a first reverse link carrier from an access terminal ; decoding the access probes and sending an access channel acknowledgement in response to the decoding; determining a number of forward link and reverse link carriers to be assigned to the access terminal , wherein the forward link carriers and reverse link carriers are different from the first reverse link carrier; sending an assignment message to the access terminal indicating the assignment of the forward and reverse link carriers assigned to the access terminal and a reference value wherein the reference value is associated with an initial transmit pilot power on each newly-assigned reverse link carrier assigned to the access terminal wherein the access terminal determines the initial transmit pilot power based on each reference value for each newly-assigned reverse link carrier. receiving a plurality of access probes transmitted on a first reverse link carrier from an access terminal ; decoding the access probes and sending an access channel acknowledgement in response to the decoding; determining a number of forward link and reverse link carriers to be assigned to the access terminal , wherein the forward link carriers and reverse link carriers are different from the first reverse link carrier; sending an assignment message to the access terminal indicating the assignment of the forward and reverse link carriers assigned to the access terminal and a reference value wherein the reference value is associated with an initial transmit pilot power on each newly-assigned reverse link carrier assigned to the access terminal wherein the access terminal determines the initial transmit pilot power based on each reference value for each newly-assigned reverse link carrier.
A system (200; 300), comprising: a signal receiver circuit configured to receive second heart sound (S2) information of a subject and plethysmography information of the subject; and an assessment circuit configured to: determine a mean blood pressure of the subject using the received S2 information; determine an indication of pulse pressure of the subject using the received plethysmography information; determine a systolic blood pressure of the subject as an increase to the determined mean blood pressure by a first function of the determined indication of pulse pressure of the subject; determine a diastolic blood pressure of the subject as a decrease from the determined mean blood pressure by a second function of the determined indication of pulse pressure of the subject; and determine the first function as a function of a rise time of the plethysmography signal and a time between the S2 heart sound and a peak time of the plethysmography signal. a signal receiver circuit configured to receive second heart sound (S2) information of a subject and plethysmography information of the subject; and an assessment circuit configured to: determine a mean blood pressure of the subject using the received S2 information; determine an indication of pulse pressure of the subject using the received plethysmography information; determine a systolic blood pressure of the subject as an increase to the determined mean blood pressure by a first function of the determined indication of pulse pressure of the subject; determine a diastolic blood pressure of the subject as a decrease from the determined mean blood pressure by a second function of the determined indication of pulse pressure of the subject; and determine the first function as a function of a rise time of the plethysmography signal and a time between the S2 heart sound and a peak time of the plethysmography signal. determine a mean blood pressure of the subject using the received S2 information; determine an indication of pulse pressure of the subject using the received plethysmography information; determine a systolic blood pressure of the subject as an increase to the determined mean blood pressure by a first function of the determined indication of pulse pressure of the subject; determine a diastolic blood pressure of the subject as a decrease from the determined mean blood pressure by a second function of the determined indication of pulse pressure of the subject; and determine the first function as a function of a rise time of the plethysmography signal and a time between the S2 heart sound and a peak time of the plethysmography signal.
An aspiration catheter system comprising: an arterial access sheath comprising an internal lumen having an inner diameter and a port providing access to the internal lumen through which aspiration can be applied by an aspiration source; and a catheter formed of an elongated catheter body sized and shaped to be introduced through the port and internal lumen of the arterial access sheath and comprising an internal lumen and a tether element connected to a proximal end of the catheter and extending out of a proximal end of the arterial access sheath; wherein the catheter is configured to telescopically slide relative to the arterial access sheath such that pushing or pulling the tether element from the proximal end of the arterial sheath device causes telescopic actuation; wherein an aspiration lumen is collectively formed by the internal lumen of the catheter and the internal lumen ofthe access sheath; characterised in that a proximal end region of the catheter comprises an inclined surface flaring outward in a proximal direction, wherein the inclined surface is formed in a thickened portion of the catheter wall that is sized to contact the inner diameter of the internal lumen of the access sheath to provide sealing sufficient to transmit aspiration force to a distal opening of the catheter to capture a thrombus. an arterial access sheath comprising an internal lumen having an inner diameter and a port providing access to the internal lumen through which aspiration can be applied by an aspiration source; and a catheter formed of an elongated catheter body sized and shaped to be introduced through the port and internal lumen of the arterial access sheath and comprising an internal lumen and a tether element connected to a proximal end of the catheter and extending out of a proximal end of the arterial access sheath; wherein the catheter is configured to telescopically slide relative to the arterial access sheath such that pushing or pulling the tether element from the proximal end of the arterial sheath device causes telescopic actuation; wherein an aspiration lumen is collectively formed by the internal lumen of the catheter and the internal lumen ofthe access sheath; characterised in that a proximal end region of the catheter comprises an inclined surface flaring outward in a proximal direction, wherein the inclined surface is formed in a thickened portion of the catheter wall that is sized to contact the inner diameter of the internal lumen of the access sheath to provide sealing sufficient to transmit aspiration force to a distal opening of the catheter to capture a thrombus.
A compression pouch comprising; a rear shell ; a front shell with a compartment ; a compression layer positioned between the front shell and the rear shell, the compression layer being configured to apply compressive forces against the front shell to reduce a volume of the compartment; a zipper configured to turn three hundred sixty degrees within the compression layer; a flap with a first end that is permanently coupled to the rear shell, and a second end that is configured to be selectively coupled to the front shell. a rear shell ; a front shell with a compartment ; a compression layer positioned between the front shell and the rear shell, the compression layer being configured to apply compressive forces against the front shell to reduce a volume of the compartment; a zipper configured to turn three hundred sixty degrees within the compression layer; a flap with a first end that is permanently coupled to the rear shell, and a second end that is configured to be selectively coupled to the front shell.
A damper for a seat assembly with a seat backrest and a seat base , the seat backrest being pivotally mounted on the seat base between a first position and a second position, the damper comprising: a guide arranged to be connected on one of the seat base and the seat backrest , said guide having a profile ; a pin arranged to be connected on an other of the seat base and the seat backrest , said pin being arranged to slide along said profile when the seat backrest moves between said first position and said second position, characterized in that said pin and said profile being arranged and shaped to create a resistance to movement between said first position and said second position, said resistance varying as a function of a relative position of the seat backrest to the seat base . a guide arranged to be connected on one of the seat base and the seat backrest , said guide having a profile ; a pin arranged to be connected on an other of the seat base and the seat backrest , said pin being arranged to slide along said profile when the seat backrest moves between said first position and said second position,
A plywood floor plate for a freight transport vehicle comprising a chassis frame, characterized in that the plywood floor plate comprises veneers attached to each other, and the plywood floor plate is attached to the chassis frame via an adhesive acrylic foam tape, which comprises two opposing adhesive surfaces.
Fuel supply device , comprising: - a pump able to pressurize a fuel, - a first casing at least partially enveloping the pump , - a buffer volume defined between the first casing and the pump , - a fuel inlet to the buffer volume and intended to be connected on the upstream side to a fuel tank , - a first fuel outlet from the buffer volume toward the pump , characterized in that it further comprises - a second fuel outlet from the buffer volume and intended to be connected on the downstream side to a fuel tank . - a pump able to pressurize a fuel, - a first casing at least partially enveloping the pump , - a buffer volume defined between the first casing and the pump , - a fuel inlet to the buffer volume and intended to be connected on the upstream side to a fuel tank , - a first fuel outlet from the buffer volume toward the pump , characterized in that it further comprises - a second fuel outlet from the buffer volume and intended to be connected on the downstream side to a fuel tank .
A communication network search method, wherein the method comprises: sending (S101), by a terminal device, a first message to a network device, wherein the first message comprises a communication network type of the terminal device and first location information including location information of the terminal device when the terminal device sends the first message; receiving (S104), by the terminal device, a second message sent by the network device, wherein the second message comprises N cell identifiers, the N cell identifiers are used to mark N pre-selected cells, and the N pre-selected cells are determined by the network device based on the first location information and the communication network type; determining (S 104), by the terminal device, M target cells in the N pre-selected cells based on second location information including location information of the terminal device when the terminal device receives the second message and motion status information including motion information of the terminal device when the terminal device receives the second message; and searching (S105), by the terminal device, for the M target cells. sending (S101), by a terminal device, a first message to a network device, wherein the first message comprises a communication network type of the terminal device and first location information including location information of the terminal device when the terminal device sends the first message; receiving (S104), by the terminal device, a second message sent by the network device, wherein the second message comprises N cell identifiers, the N cell identifiers are used to mark N pre-selected cells, and the N pre-selected cells are determined by the network device based on the first location information and the communication network type; determining (S 104), by the terminal device, M target cells in the N pre-selected cells based on second location information including location information of the terminal device when the terminal device receives the second message and motion status information including motion information of the terminal device when the terminal device receives the second message; and searching (S105), by the terminal device, for the M target cells.
A pram brake mechanism comprising a corrugated element with a bulge and two brake tappets (1-5) arranged symmetrically on both sides of the corrugated element , such that upon pressure on the corrugated element by the user the corrugated element moves and gradually pushes both brake tappets (1-5) outwardly and away from each other due to a first end of each brake tappet (1-5) sliding on the increasingly convex outer surface of the corrugated element , wherein a second end of each brake tappet (1-5) is adapted to engage a wheel for blocking the wheel, characterized in that each brake tappet (1-5) comprises a monolithic plastic housing comprising a cylindrical part and a fitting , each fitting has an axial, internal, longitudinal hole in which a rivet corresponding to the shape of the hole is inserted, each rivet is situated on the first end of the brake tappets (1-5) and is adapted to slide on the outer surface of the corrugated element during movement of the corrugated element .