mhurhangee/patent-ind-claim-en huggingface dataset:
Method for attaching a connector element to a belt end of a conveyor belt , wherein the connector element has a base tier and an adhesive tier which is disposed on one side of the base tier and is adhesive under the effect of heat, the base tier in a central region being provided with passages , comprising the following features: - disposing the connector element on the belt end , wherein the connector element , positioned in a U-shaped manner, is disposed on averted sides of the belt and on one end side of the belt , wherein the passages are positioned in the region of the U-shaped deflection of the connector element , and the adhesive tier is disposed on the belt so as to face the averted sides of said belt , - connecting the connector element to the belt in the region of the averted sides of the belt , wherein the connector element is adhesively bonded to the belt under the effect of a heated pressing installation that is disposed on both sides of the belt , wherein the connector element in the region of the passages , in the case of a U-shaped disposal of the connector element , is mounted in a positioning installation , characterized in that the positioning installation that mounts the connector element is not locationally variable, and the heated pressing installation is locationally variable in a linear manner, or the heated pressing installation is not locationally variable, and the positioning installation that mounts the connector element is locationally variable in a linear manner. - disposing the connector element on the belt end , wherein the connector element , positioned in a U-shaped manner, is disposed on averted sides of the belt and on one end side of the belt , wherein the passages are positioned in the region of the U-shaped deflection of the connector element , and the adhesive tier is disposed on the belt so as to face the averted sides of said belt , - connecting the connector element to the belt in the region of the averted sides of the belt , wherein the connector element is adhesively bonded to the belt under the effect of a heated pressing installation that is disposed on both sides of the belt , wherein the connector element in the region of the passages , in the case of a U-shaped disposal of the connector element , is mounted in a positioning installation , characterized in that
A positive electrode for a secondary battery, the positive electrode comprising: a positive electrode collector; and a positive electrode material mixture layer coated on at least one side of the positive electrode collector, wherein the positive electrode material mixture layer comprises a positive electrode active material, a conductive agent, a binder, and bimodal pores composed of first pores and second pores which have different average diameters, and the conductive agent and the positive electrode active material are included at a volume ratio (K 1 ) of 0.08:1 to 0.32:1, wherein a volume ratio of the conductive agent to the total pores is in a range of 0.1:1 to 0.33:1, a porosity is in a range of 30 vol% to 45 vol%, maximum diameters of the first pores and the second pores are less than 1 μm, and an average diameter ratio (k) of the first pores to the second pores is in a range of 0.13:1 to 0.27:1, wherein the first pores are pores between the conductive agent-the conductive agent which are formed by being surrounded by adjacent conductive agent particles, and the second pores are pores between the conductive agent-the positive electrode active material which are formed by being surrounded by the adjacent conductive agent and positive electrode active material, wherein outer surfaces of the first and second pores are respectively nonlinear along surfaces of pluralities of adjacent conductive agent and positive electrode active material particles. a positive electrode collector; and a positive electrode material mixture layer coated on at least one side of the positive electrode collector, wherein the positive electrode material mixture layer comprises a positive electrode active material, a conductive agent, a binder, and bimodal pores composed of first pores and second pores which have different average diameters, and the conductive agent and the positive electrode active material are included at a volume ratio (K 1 ) of 0.08:1 to 0.32:1, wherein a volume ratio of the conductive agent to the total pores is in a range of 0.1:1 to 0.33:1, a porosity is in a range of 30 vol% to 45 vol%, maximum diameters of the first pores and the second pores are less than 1 μm, and an average diameter ratio (k) of the first pores to the second pores is in a range of 0.13:1 to 0.27:1, wherein the first pores are pores between the conductive agent-the conductive agent which are formed by being surrounded by adjacent conductive agent particles, and the second pores are pores between the conductive agent-the positive electrode active material which are formed by being surrounded by the adjacent conductive agent and positive electrode active material, wherein outer surfaces of the first and second pores are respectively nonlinear along surfaces of pluralities of adjacent conductive agent and positive electrode active material particles.
A method for manufacturing a quantum dot light emitting diode subpixel array, comprising: a quantum dot accepting layer forming step of forming a quantum dot accepting layer including a surface functional group on a substrate ; a thermosensitive quantum dot material layer applying step of applying a thermosensitive quantum dot material layer containing a thermosensitive organic ligand on the quantum dot accepting layer ; and a thermosensitive quantum dot material transferring step of subjecting the organic ligand of thermosensitive quantum dot material in a predetermined area of the thermosensitive quantum dot material layer to a chemical reaction with the surface functional group of the quantum dot accepting layer by heating to form weak-force bond such that the thermosensitive quantum dot material in the predetermined area is transferred onto a corresponding subpixel region on the quantum dot accepting layer . a quantum dot accepting layer forming step of forming a quantum dot accepting layer including a surface functional group on a substrate ; a thermosensitive quantum dot material layer applying step of applying a thermosensitive quantum dot material layer containing a thermosensitive organic ligand on the quantum dot accepting layer ; and a thermosensitive quantum dot material transferring step of subjecting the organic ligand of thermosensitive quantum dot material in a predetermined area of the thermosensitive quantum dot material layer to a chemical reaction with the surface functional group of the quantum dot accepting layer by heating to form weak-force bond such that the thermosensitive quantum dot material in the predetermined area is transferred onto a corresponding subpixel region on the quantum dot accepting layer .
An information processor comprising: an operation control unit that controls a motion of an autonomous mobile body acting on a basis of recognition processing, in a case where a target sound that is a target voice for voice recognition processing is detected, the operation control unit moving the autonomous mobile body to a position, around an approach target, where an input level of a non-target sound that is not the target voice becomes lower, the approach target being determined on a basis of the target sound, wherein the operation control unit controls the motion of the autonomous mobile body on a basis of a noise map indicating circumstances under which the non-target sound is generated in a surrounding environment. an operation control unit that controls a motion of an autonomous mobile body acting on a basis of recognition processing, in a case where a target sound that is a target voice for voice recognition processing is detected, the operation control unit moving the autonomous mobile body to a position, around an approach target, where an input level of a non-target sound that is not the target voice becomes lower, the approach target being determined on a basis of the target sound, wherein the operation control unit controls the motion of the autonomous mobile body on a basis of a noise map indicating circumstances under which the non-target sound is generated in a surrounding environment.
A stator-rotor system of an eccentric screw pump comprising a rotor with a rotor screw and a stator with an internal thread, the stator comprising a support element and an elastomer part , wherein the support element surrounds the elastomer part in sections around the whole circumference, wherein the stator-rotor system comprises an adjusting mechanism for adjusting the stator , the adjusting mechanism comprising at least two adjustment elements coupled to the stator-rotor system , wherein the two adjustment elements are distance-variable relative to one another, wherein the two adjustment elements have a first distance from one another in a first working position and wherein the two adjustment elements have a second distance from one another in a second working position, wherein the first distance is not equal to the second distance, wherein in the second working position the cross-section and the length of the elastomer part of the stator are changed compared to the cross-section and the length of the elastomer part in the first working position, wherein for the adjustment or readjustment of a stator , the relative distance between the two adjustment elements can be adjusted in order to adapt the cross-section and the length of the elastomer part of the stator to given operating conditions, characterised in that the relative distance between the two adjustment elements can be reduced in order to reduce the length of the elastomer part of the stator , to increase the cross-section of the elastomer part of the stator , to reduce an inner contour of the stator and to increase pretensioning between the rotor and the stator , or that the relative distance between the two adjustment elements can be increased in order to increase a length of the elastomer part of the stator , to reduce a cross-section of the elastomer part of the stator , to increase an inner contour of the stator and to reduce pretensioning between the rotor and stator .
Method for manufacturing a rubber profiled-element portion (P3, P5, P7, P9, P11, P13), wherein the following steps are implemented: - Step A: a strip of unvulcanized rubber of given constant, substantially triangular, section is delivered, - Step B: the strip is stretched by an elongation percentage that is variable according to a predetermined law, so as to give the strip a reduced section, - Step C: said profiled-element portion (P3, P5, P7, P9, P11, P13) is produced by winding the strip of reduced section on itself on a rotating building drum without modifying the transverse position of the longitudinal axis of the strip. - Step A: a strip of unvulcanized rubber of given constant, substantially triangular, section is delivered, - Step B: the strip is stretched by an elongation percentage that is variable according to a predetermined law, so as to give the strip a reduced section, - Step C: said profiled-element portion (P3, P5, P7, P9, P11, P13) is produced by winding the strip of reduced section on itself on a rotating building drum without modifying the transverse position of the longitudinal axis of the strip.
A flash system comprising: a light guide shaped as a ring having a central opening for a camera lens , the light guide having light extraction features on a light exit surface of the light guide ; characterized in that it further comprises: two LED assemblies molded into the ring-shaped light guide , the LED assemblies being 180 degrees apart within the light guide , each LED assembly comprising: a printed circuit board including conductors , the printed circuit board having a first surface for electrically connecting a light emitting diode to the conductors ; an LED mounted on the first surface of the printed circuit board and electrically connected to the conductors ; wherein at least a first portion of the printed circuit board and all of the LED is encapsulated in the light guide , wherein a second portion of the printed circuit board extends from the light guide for being connected to a power source, and wherein the light guide is configured to internally reflect light from LEDs within the light guide until emitted through the light exit surface.
A device for diagnosing an abnormality by measuring change in a muscle, comprising: a vibration unit configured to provide vibration to a body part of a user; a measuring unit configured to detect change in a muscle by measuring a change in elasticity of the body part according to the vibration; and a processing unit configured to calculate an abnormality of the body part based on the change in the elasticity of the body part, wherein the measuring unit includes an electromyography (EMG) unit that is configured to measure an electromyograph signal of the body part, wherein the processing unit is configured to calculate the abnormality of the body part by using an anomaly detection algorithm that detects whether there is anomaly in a variable, wherein the measuring unit includes an accelerometer that detects reflex vibration generated in the body part in response to the vibration, characterized in that the anomaly detection algorithm used by the processing unit includes an isolation forest algorithm that detects anomaly by splitting anomaly data based on a tree, wherein if there is a sudden change in the frequency component of the reflex vibration measured by the accelerometer and of the frequency component of the EMG signal measured by the EMG, it is split as outlier. a vibration unit configured to provide vibration to a body part of a user; a measuring unit configured to detect change in a muscle by measuring a change in elasticity of the body part according to the vibration; and a processing unit configured to calculate an abnormality of the body part based on the change in the elasticity of the body part, wherein the measuring unit includes an electromyography (EMG) unit that is configured to measure an electromyograph signal of the body part, wherein the processing unit is configured to calculate the abnormality of the body part by using an anomaly detection algorithm that detects whether there is anomaly in a variable, wherein the measuring unit includes an accelerometer that detects reflex vibration generated in the body part in response to the vibration, characterized in that the anomaly detection algorithm used by the processing unit includes an isolation forest algorithm that detects anomaly by splitting anomaly data based on a tree, wherein if there is a sudden change in the frequency component of the reflex vibration measured by the accelerometer and of the frequency component of the EMG signal measured by the EMG, it is split as outlier.
A system comprising: a power removal circuit for enabling remote triggering of a power shutdown of an equipment coupled to the power removal circuit , a monitoring circuit coupled to the power removal circuit , wherein the monitoring circuit generates an output signal indicative of circuit integrity based on one or more electrical characteristics of the power removal circuit ; and a notification system coupled to the monitoring circuit to receive the output signal, wherein the notification system generates a notification based on the output signal. a power removal circuit for enabling remote triggering of a power shutdown of an equipment coupled to the power removal circuit , a monitoring circuit coupled to the power removal circuit , wherein the monitoring circuit generates an output signal indicative of circuit integrity based on one or more electrical characteristics of the power removal circuit ; and a notification system coupled to the monitoring circuit to receive the output signal, wherein the notification system generates a notification based on the output signal.
Small electrical appliance , in particular hair removal device or toothbrush , comprising - an electric load , wherein the electric load heats up during operation; - a temperature sensor arranged spatially separated from the electric load; characterized by - a measuring circuitry for measuring an electrical parameter of the electric load ; - control circuitry adapted to protect the electric load from overheating by controlling the electric load based on the electrical parameter of the electric load and an output of the temperature sensor . - an electric load , wherein the electric load heats up during operation; - a temperature sensor arranged spatially separated from the electric load; characterized by - a measuring circuitry for measuring an electrical parameter of the electric load ; - control circuitry adapted to protect the electric load from overheating by controlling the electric load based on the electrical parameter of the electric load and an output of the temperature sensor .
An orthotic joint alignment device comprising a first joint member ; a second joint member connected to the first joint member for pivotal movement relative to the first joint member about a pivot joint ; a cam bushing rotatably retained relative to the first joint member to permit rotation of the cam bushing about a cam bushing axis, the cam bushing including an eccentric cam pin displaced at a fixed distance from the cam bushing axis in a radial direction perpendicular to the cam bushing axis to permit revolution of the eccentric cam pin around the cam bushing axis when the cam bushing rotates about the cam bushing axis; a cam slot in fixed relation to the second joint member , the cam slot retaining the eccentric cam pin , the cam slot configured to guide translational movement of the eccentric cam pin along a length of the cam slot , and the second joint member being configured to impel said translational movement of the eccentric cam pin along the length of the cam slot and to impel revolution of the eccentric cam pin about the cam bushing axis when the second joint member is pivoted relative to the first joint member ; and a selectively engageable alignment locking mechanism , engagement of said alignment locking mechanism configured to frictionally restrain the cam bushing from rotating relative to the first joint member so that contact between the eccentric cam pin and cam slot restrains the second joint member from pivoting relative to the first joint member .
Reset unit for resetting rotational and/or translational deflection movements of a control element, comprising an ordered mesostructure of elementary cells formed from an ordered arrangement of at least one elementary cell , wherein the at least one elementary cell can be reversibly compressed and expanded by means of force, the reset unit further comprising at least one signal generator and/or at least one reaction unit , the reset unit further comprising at least one evaluation unit which evaluates a signal emitted by the signal generator and/or controls the reaction unit electrically and/or magnetically, wherein the signal generator and/or reaction unit are embedded in the at least one mesostructure , wherein a resetting force of the reset unit can be generated at least partially by deformation of the mesostructure .
A turnstile for access control, comprising: - a supporting pole ; - a motor ; - an access obstruction bar connected to said pole ; said access obstruction bar being adapted to rotate about a substantially parallel axis and a substantially perpendicular axis with respect to the longitudinal axis of the pole so as to pass from a horizontal position, in which it is substantially perpendicular to said pole , to one or more intermediate positions, in which it is inclined with respect to said pole , and to a vertical position, in which it is substantially parallel to said pole , characterized in that it further comprises: - an enclosure having a first component that is integral with a fixed surface and a second component that can rotate; said enclosure having a cavity adapted to contain said supporting pole , which is integral with said first component , said pole extending parallel to the longitudinal extension of the enclosure ; - said motor being adapted to be contained in said enclosure and to turn said second component by means of a reduction unit ; - a slider associated rotatably and slidingly with said pole , said slider being moreover connected to said bar and to a sliding block that is integral with said rotatable component ; - a cam which is integral with said pole and is adapted to be arranged between said reduction unit and said slider ; said slider being provided with a follower adapted to slide along a contact surface of said cam , said contact surface forming a path having at least two points arranged at different heights; said bar being adapted to rotate about said substantially parallel axis and said substantially perpendicular axis with respect to the longitudinal axis of the pole depending on the position of said follower on said path . - a supporting pole ; - a motor ; - an access obstruction bar connected to said pole ; - an enclosure having a first component that is integral with a fixed surface and a second component that can rotate; said enclosure having a cavity adapted to contain said supporting pole , which is integral with said first component , said pole extending parallel to the longitudinal extension of the enclosure ; - said motor being adapted to be contained in said enclosure and to turn said second component by means of a reduction unit ; - a slider associated rotatably and slidingly with said pole , said slider being moreover connected to said bar and to a sliding block that is integral with said rotatable component ; - a cam which is integral with said pole and is adapted to be arranged between said reduction unit and said slider ;