mhurhangee/patent-ind-claim-en huggingface dataset:
A hair removal apparatus for removing, in a hair removal operation, hair from a body portion, the hair removal apparatus comprising: a first sensor that is configured to determine a current handling of the hair removal apparatus during the hair removal operation, an actuator for changing a hair removal characteristic of said hair removal apparatus , a control unit for controlling the actuator , wherein the control unit is configured to receive first multiple input data (14 1 , 14 2 , ..., 14 n ) from the first sensor and to map, by using a control function , said received first input data (14 1 , 14 2 , ..., 14 n ) to an output signal for controlling the actuator during the hair removal operation, and an adaptation unit that is configured to receive second multiple input data (14 2 , 18 1 , 18 2 , ..., 18 m ) from the first sensor and from a second sensor , and to adapt during the hair removal operation the control function of the control unit depending on the received second input data (14 2 , 18 1 , 18 2 , ..., 18 m ). a first sensor that is configured to determine a current handling of the hair removal apparatus during the hair removal operation, an actuator for changing a hair removal characteristic of said hair removal apparatus , a control unit for controlling the actuator , wherein the control unit is configured to receive first multiple input data (14 1 , 14 2 , ..., 14 n ) from the first sensor and to map, by using a control function , said received first input data (14 1 , 14 2 , ..., 14 n ) to an output signal for controlling the actuator during the hair removal operation, and an adaptation unit that is configured to receive second multiple input data (14 2 , 18 1 , 18 2 , ..., 18 m ) from the first sensor and from a second sensor , and to adapt during the hair removal operation the control function of the control unit depending on the received second input data (14 2 , 18 1 , 18 2 , ..., 18 m ).
A computer-implemented method of seismic imaging, comprising: a. receiving, at a computer processor, a seismic dataset representative of a subsurface volume of interest and an earth model ; b. generating , via the computer processor, extended image gathers by extended reverse time migration of the seismic dataset using the earth model ; c. processing , via the computer processor, the extended image gathers to generate processed image gathers ; d. performing , via the computer processor, extended modeling based on the processed image gathers to generate a modeled seismic dataset ; e. enhancing , via the computer processor, the processed image gathers to generate an enhanced image ; f. performing , via the computer processor, extended modeling based on the enhanced image gathers to generate a modeled enhanced dataset ; g. differencing , via the computer processor, the modeled enhanced dataset and the modeled seismic dataset to determine a data residual (3 6A); h. inverting , via the computer processor, the data residual to generate a model residual ; i. updating , via the computer processor, the earth model based on the model residual to create an updated earth model ; j. performing, via the computer processor, seismic imaging of the seismic dataset using the updated earth model to create an improved seismic image; and k. displaying, on a user interface, the improved seismic image, wherein: the extended modeling is Born modeling; and enhancing the processed image gathers comprises attenuating amplitudes at non-zero lag by applying a taper. a. receiving, at a computer processor, a seismic dataset representative of a subsurface volume of interest and an earth model ; b. generating , via the computer processor, extended image gathers by extended reverse time migration of the seismic dataset using the earth model ; c. processing , via the computer processor, the extended image gathers to generate processed image gathers ; d. performing , via the computer processor, extended modeling based on the processed image gathers to generate a modeled seismic dataset ; e. enhancing , via the computer processor, the processed image gathers to generate an enhanced image ; f. performing , via the computer processor, extended modeling based on the enhanced image gathers to generate a modeled enhanced dataset ; g. differencing , via the computer processor, the modeled enhanced dataset and the modeled seismic dataset to determine a data residual (3 6A); h. inverting , via the computer processor, the data residual to generate a model residual ; i. updating , via the computer processor, the earth model based on the model residual to create an updated earth model ; j. performing, via the computer processor, seismic imaging of the seismic dataset using the updated earth model to create an improved seismic image; and k. displaying, on a user interface, the improved seismic image, the extended modeling is Born modeling; and enhancing the processed image gathers comprises attenuating amplitudes at non-zero lag by applying a taper.
Hinge device for moving a decorative panel (P) and comprising a first member hinged to a second member by means of a hinge pin and an elastic member ; the first member being assigned to be fixed to the frame or body of an appliance and the second member being assigned to be fixed to a door of the same appliance; the elastic member being connected to the first member and interacting between the latter and the second member by means of transmission elements to impart a closing elastic force to the second member where the decorative panel (P) is constrained to slide parallel to the door and perpendicularly to the hinge pin by interconnection constraint members of said door and panel (P); wherein said device comprises a joint member for the decorative panel (P) and assigned to move the latter (P) along the constraint members; at least in one operating condition of the device , said joint member is hinged by means of a first pin to a first end of a rocker element whose opposite end bears a sliding pin movable in a shaped slot , wherein a connection member is pivoted, by means of a second pin , to the second member in a separate point from the hinge pin ; such connection member being connected to the elastic member by means of a connection element of the transmission elements ; the median portion of the rocker element is pivoted by means of a third pin to a first end of an arm element whose opposite second end is rotatably engaged to the hinge pin , where in an installed condition of the device and of the panel (P), the position, the dimensional ratios and the connection of the second member , the rocker element , the connection member and the arm element and the shape and orientation of the shaped slot in cooperation with the constraint members impose to the joint member a motion parallel to the door, away from the hinge pin in correspondence with the actuation of the device towards a maximum opening condition (A) thereof, and approaching the hinge pin in correspondence with the actuation of the device towards its closed condition (C), said device being characterized in that the shaped slot is fixed to, or made in, the connection member of the transmission elements .
A power supply device comprising; a power supply configured to supply DC power; and a power management integrated circuit , PMIC, configured to convert DC power provided from the power supply and to simultaneously provide the converted DC power to a plurality of systems on chips , SoCs, wherein the PMIC is provided with a plurality of rails configured to output different voltages, wherein the PMIC comprises a plurality of pulse width modulator, PWM, signal generators configured to output a first PWM signal (PWM1) and a second PWM signal (PWM2) for switching a switching device outside the PMIC, and wherein the plurality of PWM signal generators are configured to generate a control signal for switching between a first mode in which the first and second PWM signals (PWM1, PWM2) have the same phase and a second mode in which the first and second PWM signals (PWM1, PWM2) have a phase difference of 180°, based on a received feedback corresponding to the current and output of each phase.
A fuel tank cap locking device, comprising: a cap that is configured to open and close a fuel filler port (Ta) leading to a fuel tank (T) of a vehicle by moving between a closed position where the fuel filler port (Ta) is closed, and an open position where the fuel filler port (Ta) is opened; an operation unit that is configured to be allowed to perform a swing operation around a swing shaft (Lb) by an operator; an engagement unit that is movable in conjunction with the swing operation of the operation unit , and that is configured to operate between an engagement position where a state in which the cap closes the fuel filler port (Ta) is held, and an allowable position where engagement is released and an opening operation of the cap is allowed; and a lock unit that is configured to lock movement of the engagement unit from the engagement position to the allowable position, or release lock to allow the movement of the engagement unit from the engagement position to the allowable position, characterized in that the lock unit includes a lock member that is movable between an interference position where the lock member interferes with an interfered portion (3d, 3'ad) formed at a predetermined position of the engagement unit and locks, and a non-interference position where the lock member does not interfere with the interfered portion (3d, 3'ad) and the lock is released when the engagement unit moves from the engagement position to the allowable position by the swing operation of the operation unit . a cap that is configured to open and close a fuel filler port (Ta) leading to a fuel tank (T) of a vehicle by moving between a closed position where the fuel filler port (Ta) is closed, and an open position where the fuel filler port (Ta) is opened; an operation unit that is configured to be allowed to perform a swing operation around a swing shaft (Lb) by an operator; an engagement unit that is movable in conjunction with the swing operation of the operation unit , and that is configured to operate between an engagement position where a state in which the cap closes the fuel filler port (Ta) is held, and an allowable position where engagement is released and an opening operation of the cap is allowed; and a lock unit that is configured to lock movement of the engagement unit from the engagement position to the allowable position, or release lock to allow the movement of the engagement unit from the engagement position to the allowable position, characterized in that the lock unit includes a lock member that is movable between an interference position where the lock member interferes with an interfered portion (3d, 3'ad) formed at a predetermined position of the engagement unit and locks, and a non-interference position where the lock member does not interfere with the interfered portion (3d, 3'ad) and the lock is released when the engagement unit moves from the engagement position to the allowable position by the swing operation of the operation unit .
A wiper blade assembling adapter for coupling a wiper blade to a wiper arm which has an arm part configured to rotate about a proximal end and a cover part coupled to a distal end of the arm part , wherein a coupling element protrudes inward from a lower side of a rear end at a side surface of the cover part , the wiper blade assembling adapter comprising: a main body part adapted to be coupled to the wiper blade ; and a locking part rotatably provided on the main body part , wherein the main body part includes a guide part , which has an insertion part into which the coupling element of the wiper arm can be inserted in a first direction and a catching part which extends from the insertion part and is configured to block movement of the coupling element in the first direction after the coupling element moves in a second direction, and a hinge part disposed at one side of the guide part , and the locking part has a rotary surface which is rotatably coupled to the hinge part and a cover surface which extends from the rotary surface and covers an outer surface of the wiper arm that surrounds the main body part ; characterized in that a step part , on which a lower end of the cover part is to be seated, protrudes from a side surface of the main body part ; wherein the main body part further includes a sidewall part that protrudes from a surrounding portion of the step part and surrounds a side surface of the cover part . a main body part adapted to be coupled to the wiper blade ; and a locking part rotatably provided on the main body part , wherein the main body part includes a guide part , which has an insertion part into which the coupling element of the wiper arm can be inserted in a first direction and a catching part which extends from the insertion part and is configured to block movement of the coupling element in the first direction after the coupling element moves in a second direction, and a hinge part disposed at one side of the guide part , and the locking part has a rotary surface which is rotatably coupled to the hinge part and a cover surface which extends from the rotary surface and covers an outer surface of the wiper arm that surrounds the main body part ; characterized in that a step part , on which a lower end of the cover part is to be seated, protrudes from a side surface of the main body part ; wherein the main body part further includes a sidewall part that protrudes from a surrounding portion of the step part and surrounds a side surface of the cover part .
Moulding tool for producing composite sealing elements by injection-moulding a moulded sealing part onto an extruded sealing strand portion (3-5), with a mould cavity and at least one opening channel , which opens out into the mould cavity and into which an end region of the extruded sealing strand portion (3-5) can be inserted while closing the mould cavity , and with devices (14-17) for fixing the sealing strand portion (3-5) by clamping, characterized in that the clamping fixing devices comprise at least one clamping jaw element (14-17), which acts on the end region within the opening channel and is adjustable in its position.
Metal tightening screw (7; 17) having a screw head (7A; 17A) and a screw shank , said screw shank (7B; 17B) being provided with a male thread adapted to cooperate with a female fastening means, wherein a torque limiting cap (9; 19; 19') is arranged on the screw head (7A; 17A), said torque limiting cap (9; 19; 19')including at least one torque transferring feature that couples the cap (9; 19; 19') to the screw head (7A; 17A) in a rotational direction, characterized in that the torque limiting cap (9; 19; 19') is made of plastic, wherein the torque transferring feature includes a recess in the head (7A; 17A) of the screw and a protrusion on the cap (9; 19; 19') that mates with the recess such that a torque can be transferred from the torque limiting cap (9; 19; 19') to the screw head (7A; 17A), and in that the torque limiting cap (9; 19; 19') has on an outer side a recess which is able to mate with a screw driver, wherein the torque limiting cap (9; 19; 19') is adapted to be destructed at the recess by the screw driver when the torque applied by a screw driver to the cap (9; 19; 19') exceeds a predetermined value so as to limit the torque to be applied to the screw (7; 17).
A glass-wiping robot comprising a glass-wiping robot housing , a power cord extending outward through the housing , a protruding mechanism provided on the housing and protruding from the external surface of the housing , characterized in that , a power cord positioning sheath is provided on the housing , and the power cord passes through a central through-hole of the power cord positioning sheath and is fixed, wherein the power cord positioning sheath protrudes from the external surface of the housing in a same direction as the protruding mechanism and away from a surface upon which the glass-wiping robot is configured to move.
Compactor arrangement , having: • a support framework , • a compactor which is installed on the support framework ; • a flap arrangement , having: a first cover plate (418p-1), a second cover plate (418p-2), a first hinge arrangement (418s-1), by means of which the first cover plate (418p-1) is pivotably installed on the support framework and by means of which the second cover plate (418p-2) is pivotably installed on the support framework , a third cover plate (418p-3), and a second hinge arrangement (418s-2), by means of which the third cover plate (418p-3) is pivotably installed on the second cover plate (418p-2), characterized in that the flap arrangement is configured in such a way that it can be brought into a closed position , into a first open position and into a second open position by means of pivoting of the first cover plate (418p-1), of the second cover plate (418p-2) and/or of the third cover plate (418p-3), wherein, in the first open position , the first cover plate (418p-1) is arranged over the second cover plate (418p-2) and also the second cover plate and the third cover plate (418p-3) are oriented so as to be substantially in a common plane; and/or wherein, in the second open position , the three cover plates are arranged one over the other. • a support framework , • a compactor which is installed on the support framework ; • a flap arrangement , having: a first cover plate (418p-1), a second cover plate (418p-2), a first hinge arrangement (418s-1), by means of which the first cover plate (418p-1) is pivotably installed on the support framework and by means of which the second cover plate (418p-2) is pivotably installed on the support framework , a third cover plate (418p-3), and a second hinge arrangement (418s-2), by means of which the third cover plate (418p-3) is pivotably installed on the second cover plate (418p-2), a first cover plate (418p-1), a second cover plate (418p-2), a first hinge arrangement (418s-1), by means of which the first cover plate (418p-1) is pivotably installed on the support framework and by means of which the second cover plate (418p-2) is pivotably installed on the support framework , a third cover plate (418p-3), and a second hinge arrangement (418s-2), by means of which the third cover plate (418p-3) is pivotably installed on the second cover plate (418p-2),
A solar cell comprising: a semiconductor substrate having a first conductivity type; a first conductivity type layer having a conductivity type equal to the first conductivity type and a second conductivity type layer having a second conductivity type opposite to the first conductivity type, which are located on a first main surface of the substrate ; a first collecting electrode on the first conductivity type layer located on the first main surface; and a second collecting electrode on the second conductivity type layer located on the first main surface, wherein a second conductivity type layer having the second conductivity type is formed on only a part of a side surface of the semiconductor substrate and continuously from the second conductivity type layer located on the first main surface, such that the second conductivity type layer does not reach a second main surface of the substrate which is a light receiving surface a semiconductor substrate having a first conductivity type; a first conductivity type layer having a conductivity type equal to the first conductivity type and a second conductivity type layer having a second conductivity type opposite to the first conductivity type, which are located on a first main surface of the substrate ; a first collecting electrode on the first conductivity type layer located on the first main surface; and a second collecting electrode on the second conductivity type layer located on the first main surface, wherein a second conductivity type layer having the second conductivity type is formed on only a part of a side surface of the semiconductor substrate and continuously from the second conductivity type layer located on the first main surface, such that the second conductivity type layer does not reach a second main surface of the substrate which is a light receiving surface
A method implemented by a base station in a wireless communication network comprising multiple base stations , the method comprising: selecting , based on current radio environment conditions experienced by a wireless device , a radio environment context from a plurality of stored radio environment contexts indicative of radio conditions at respective locations in the wireless communication network ; and selecting a target base station for a handover using a mapping between the selected radio environment context and one or more candidate base stations that are predicted, based on historical measurement data collected over time from a plurality of wireless devices , to provide the highest expected rewards in terms of a performance metric given the selected radio environment context. selecting , based on current radio environment conditions experienced by a wireless device , a radio environment context from a plurality of stored radio environment contexts indicative of radio conditions at respective locations in the wireless communication network ; and selecting a target base station for a handover using a mapping between the selected radio environment context and one or more candidate base stations that are predicted, based on historical measurement data collected over time from a plurality of wireless devices , to provide the highest expected rewards in terms of a performance metric given the selected radio environment context.
A state keeping method, comprising: when a User Equipment, UE , is in an inactive state and meets a second predetermined condition, keeping the UE in the inactive state, wherein the inactive state is an intermediate state between a connect state and an idle state, the method characterized in that the second predetermined condition comprises that the UE fails to find any cell available for the UE to reside; and in that the method further comprises: if a Radio Access Network, RAN, side location area of the UE changes, transmitting, by the UE , a RAN side location area update request when accessing a fourth-type cell, wherein the fourth-type cell refers to a preconfigured cell allowing work in the inactive state. when a User Equipment, UE , is in an inactive state and meets a second predetermined condition, keeping the UE in the inactive state, wherein the inactive state is an intermediate state between a connect state and an idle state, the method characterized in that the second predetermined condition comprises that the UE fails to find any cell available for the UE to reside; and in that the method further comprises: if a Radio Access Network, RAN, side location area of the UE changes, transmitting, by the UE , a RAN side location area update request when accessing a fourth-type cell, wherein the fourth-type cell refers to a preconfigured cell allowing work in the inactive state.