mhurhangee/ep-ind-claims huggingface dataset:
A sweetener composition comprising a sweetening blend with at least three components selected from: Maltitol, Xylitol and Rebaudioside A, the latter having a purity between 80% and 100% by weight on the anhydrous basis, wherein: - Rebaudioside A is present in an amount ranging from 310 to 700 ppm (parts per million) of the sweetening blend with at least three components; - Xylitol is present in an amount ranging from 35,000 to 700,000 ppm (parts per million) of the sweetening blend with at least three components; - Maltitol is present in an amount ranging from 320,000 to 970,000 ppm (parts per million) of the sweetening blend with at least three components; the sum of the amounts of the three components of the sweetening blend being equal to the same amount by weight of sucrose and such as to achieve the same sweetening power as sucrose. - Rebaudioside A is present in an amount ranging from 310 to 700 ppm (parts per million) of the sweetening blend with at least three components; - Xylitol is present in an amount ranging from 35,000 to 700,000 ppm (parts per million) of the sweetening blend with at least three components; - Maltitol is present in an amount ranging from 320,000 to 970,000 ppm (parts per million) of the sweetening blend with at least three components;
Damper assembly, comprising a damper with a tube (2.1) and a piston (2.2) moveable relative to said tube (2.1) of said damper and an inductive sensor with a stator (4.1) and a cursor (4.2) moveable relative to said stator (4.1) of said inductive sensor, whereat said stator (4.1) is mounted to a support of said damper assembly stationary to said piston (2.2) and whereat said cursor (4.2) is a part of said tube (2.1), wherein said support is built as a dirt cap for said damper of said damper assembly, whereat said dirt cap comprises an inner surface facing said damper and an outer surface (6.2) not facing said damper, and said stator (4.1) is mounted on said outer surface (6.2) of said dirt cap, wherein said dirt cap is built as a tube concentrically positioned to said tube (2.1) of said damper, wherein said cursor (4.2) of said inductive sensor is a part of a separate cover (2.3) of said tube (2.1) of said damper, characterized in that, • said cursor (4.2) of said inductive sensor is built as a ring (4.2), which is mounted to said cover in an electrically insulated manner or which is mounted to said cover (2.3) built from an electrically insulating material, • said cover (2.3) comprises sliders (2.3.1.1) which are protruding from an outer surface (2.3.1) of said cover (2.3) for sliding along said inner surface (6.1) of said dirt cap. wherein said support is built as a dirt cap for said damper of said damper assembly, whereat said dirt cap comprises an inner surface facing said damper and an outer surface (6.2) not facing said damper, and said stator (4.1) is mounted on said outer surface (6.2) of said dirt cap, wherein said dirt cap is built as a tube concentrically positioned to said tube (2.1) of said damper, wherein said cursor (4.2) of said inductive sensor is a part of a separate cover (2.3) of said tube (2.1) of said damper, characterized in that, • said cursor (4.2) of said inductive sensor is built as a ring (4.2), which is mounted to said cover in an electrically insulated manner or which is mounted to said cover (2.3) built from an electrically insulating material, • said cover (2.3) comprises sliders (2.3.1.1) which are protruding from an outer surface (2.3.1) of said cover (2.3) for sliding along said inner surface (6.1) of said dirt cap. • said cursor (4.2) of said inductive sensor is built as a ring (4.2), which is mounted to said cover in an electrically insulated manner or which is mounted to said cover (2.3) built from an electrically insulating material, • said cover (2.3) comprises sliders (2.3.1.1) which are protruding from an outer surface (2.3.1) of said cover (2.3) for sliding along said inner surface (6.1) of said dirt cap.
An exercise managing method comprising: determining, with a processor, a cumulative heart rate, HR, corresponding to a cumulative sum of HRs of a user, wherein the cumulative HR is based on HRs during a steady state, wherein the cumulative HR is determined based on a mean HR in the steady state period and a duration of an exercise performed by the user; analyzing the exercise performed by the user based on the cumulative HR, wherein the analyzing comprises: determining a ratio of anaerobic metabolism to aerobic metabolism used by the user during a time period of the exercise, based on a difference between the cumulative HR and another cumulative HR, wherein the another HR is calculated based on HRs measured from a start time of the exercise performed by the user; or determining an exercise performance excess or shortfall ratio based on a difference between the cumulative HR and a target cumulative HR for the user, wherein the target cumulative HR is determined based on a target HR for the user and the duration of the exercise; and providing a result of the analyzing to the user. determining, with a processor, a cumulative heart rate, HR, corresponding to a cumulative sum of HRs of a user, wherein the cumulative HR is based on HRs during a steady state, wherein the cumulative HR is determined based on a mean HR in the steady state period and a duration of an exercise performed by the user; analyzing the exercise performed by the user based on the cumulative HR, wherein the analyzing comprises: determining a ratio of anaerobic metabolism to aerobic metabolism used by the user during a time period of the exercise, based on a difference between the cumulative HR and another cumulative HR, wherein the another HR is calculated based on HRs measured from a start time of the exercise performed by the user; or determining an exercise performance excess or shortfall ratio based on a difference between the cumulative HR and a target cumulative HR for the user, wherein the target cumulative HR is determined based on a target HR for the user and the duration of the exercise; and determining a ratio of anaerobic metabolism to aerobic metabolism used by the user during a time period of the exercise, based on a difference between the cumulative HR and another cumulative HR, wherein the another HR is calculated based on HRs measured from a start time of the exercise performed by the user; or determining an exercise performance excess or shortfall ratio based on a difference between the cumulative HR and a target cumulative HR for the user, wherein the target cumulative HR is determined based on a target HR for the user and the duration of the exercise; and providing a result of the analyzing to the user.
Method for controlling the winding tension of a yarn in a winding unit comprising: a tension sensor, a thread tensioner, and an unravelling tension control device comprising a first containment element operable on command, and a second containment element fixed and arranged downstream of the first containment element along the winding direction of the yarn; said method comprises the following steps: (a) start of the winding step with winding speed equal to vmax; (b) upon reaching a predetermined tension value measured by the tension sensor, the winding speed is brought to a predetermined percentage of vmax; (c) upon reaching said predetermined percentage of vmax, from here on the unravelling tension is controlled by the thread tensioner; and (d) upon reaching a predetermined operating parameter of the winding, operating the first containment element of the unravelling tension control device. (a) start of the winding step with winding speed equal to vmax; (b) upon reaching a predetermined tension value measured by the tension sensor, the winding speed is brought to a predetermined percentage of vmax; (c) upon reaching said predetermined percentage of vmax, from here on the unravelling tension is controlled by the thread tensioner; and (d) upon reaching a predetermined operating parameter of the winding, operating the first containment element of the unravelling tension control device.
A lock comprising: a housing defining a cavity and having an opening for receiving a locking bolt, said cavity including a groove therein; a locking bolt movable between a locked position and an unlocked position, the locking bolt having a tip portion contained within said housing; a rotary actuator positioned within the housing, the rotary actuator energizable between a locked condition for maintaining the locking bolt in a locked position and an unlocked condition for allowing the locking bolt to move to an unlocked position; a cam engagement member including an elongate flange rotatably coupled to said rotary actuator, said flange energizable by said rotary actuator between a first blocking position in which a first portion of the flange is received by said flange receiving groove and a second portion of said flange contacts the locking bolt tip portion and blocks said locking bolt from moving into the unlocked position and a second non-blocking position in which the flange rotates out of the groove and does not block the tip portion of the locking bolt to allow the locking bolt to bypass the flange and retract into the housing; and a spring interposed between the rotary actuator and said flange where said spring biases the flange in the locked position. a housing defining a cavity and having an opening for receiving a locking bolt, said cavity including a groove therein; a locking bolt movable between a locked position and an unlocked position, the locking bolt having a tip portion contained within said housing; a rotary actuator positioned within the housing, the rotary actuator energizable between a locked condition for maintaining the locking bolt in a locked position and an unlocked condition for allowing the locking bolt to move to an unlocked position; a cam engagement member including an elongate flange rotatably coupled to said rotary actuator, said flange energizable by said rotary actuator between a first blocking position in which a first portion of the flange is received by said flange receiving groove and a second portion of said flange contacts the locking bolt tip portion and blocks said locking bolt from moving into the unlocked position and a second non-blocking position in which the flange rotates out of the groove and does not block the tip portion of the locking bolt to allow the locking bolt to bypass the flange and retract into the housing; and a spring interposed between the rotary actuator and said flange where said spring biases the flange in the locked position.
Electronically commutated motor, having a rotor and a rotor position sensor associated therewith, which sensor, during operation, furnishes a rotational position signal, at least at predetermined rotational positions of the rotor, and having a stator interacting with the rotor, which stator has at least one stator winding strand that is arranged in the diagonal of an H bridge, which H bridge is configured on a first side for connection to a first pole (+U B) of a DC voltage source, and on a second side is connected to a measuring resistor, which measuring resistor is configured for connection to a second pole of said DC voltage source, so that, during operation, a current (i R) flows between the second side of the H bridge and the second pole via the measuring resistor and thereby causes a corresponding voltage drop (u R) in the measuring resistor, the first side being connected to a capacitor - referred to hereinafter as a link circuit capacitor -, and having a control apparatus which is configured, during operation, to perform the following steps: The H bridge is controlled so that the stator winding strand associated therewith has current pulses (+i1, -i1) flowing through it, between which pulses, in the region of a first point in time (t 1) that is influenced by a rotational position signal of the rotor position sensor, the direction of the current delivered to the stator winding strand is switched over by a commutation operation to a direction opposite to the previous current direction; at the beginning of each commutation operation, starting from a second point in time (t 2), the stator winding strand, arranged in the diagonal of the H bridge, by corresponding control of the H bridge is operated in short circuit in order to cause a decreasing circulating current (i*) through the stator winding strand, which circulating current (i*) reaches a value of zero at a third point in time (t 3); the time interval (T CC) between the first point in time (t 1) and the third point in time (t 3) is modified by modification steps, at least in the majority of these steps, towards a minimum. The H bridge is controlled so that the stator winding strand associated therewith has current pulses (+i1, -i1) flowing through it, between which pulses, in the region of a first point in time (t 1) that is influenced by a rotational position signal of the rotor position sensor, the direction of the current delivered to the stator winding strand is switched over by a commutation operation to a direction opposite to the previous current direction; at the beginning of each commutation operation, starting from a second point in time (t 2), the stator winding strand, arranged in the diagonal of the H bridge, by corresponding control of the H bridge is operated in short circuit in order to cause a decreasing circulating current (i*) through the stator winding strand, which circulating current (i*) reaches a value of zero at a third point in time (t 3); the time interval (T CC) between the first point in time (t 1) and the third point in time (t 3) is modified by modification steps, at least in the majority of these steps, towards a minimum.
An amorphous solid dispersion comprises 20-40% w/w of compound I or a pharmaceutically acceptable salt thereof, and 60-80% w/w of hydroxypropylmethylcellulose-acetate succinate (HPMC-AS)
An electrical machine having an axis of rotation and comprising - a casing comprising: - a base wall transversal to the axis of rotation; at least one projection projecting from the base wall towards the inside of the casing according to a direction parallel to the axis of rotation, the machine comprising: - a stator, comprising a ferromagnetic core having a plurality of pole shoes each having a respective end, at least one conductor wound on the pole shoes to form a plurality of coils forming a stator winding, insulating means (18, 19) interposed between the ferromagnetic core and the stator winding, at least one first coil of the winding comprising a predetermined number of turns wound on a first pole shoe and having at least one end portion engaged with the projection, at least one first layer of the turns in the end portion of the first coil being formed by stretches of the conductor all substantially coplanar, the first layer being the outermost of the first coil with respect to the ferromagnetic core and abutted against the projection, the insulating means (18, 19) comprising for at least the first coil at least a first seat (20, 22) for a first number of first turns of the turns and at least a second seat (21, 23) for a second number of second turns of the turns, the first turns being positioned in the first seat (20, 22) and the second turns being positioned in the second seat (21, 23), the first turns and the second turns (11a, 11b) of the first coil being divided between the first seat (20, 22) and the second seat (21, 23), the electrical machine being characterised in that the first seat (20, 22) is in the form of a throat which extends in the insulating means (18, 19) according to a direction transversal to a radius of the stator. - a casing comprising: - a base wall transversal to the axis of rotation; - a stator, comprising
A power assist robot apparatus (100,200,300,500,1100) comprising: two rotatably driving portions (12;212;1001) that are located near opposite lateral sides in a right-left direction of a waist of a wearer wearing the power assist robot apparatus, respectively, and produce drive torque for assisting a movement of the wearer's upper body and thighs in a direction to follow the movement of the wearer's upper body and thighs; an upper-body frame that is placed at the wearer's chest and waist, and holds the two rotatably driving portions; two thigh frames (19,20;221,223;310;506;1006), each of which has one end fixed to a rotary shaft of its associated rotatably driving portion and has the other end placed at a lateral side of a thigh; a first angle detecting portion that detects an angle of turning motion of the wearer's upper body about a right-left axis thereof; a second angle detecting portion that is disposed in each of the two rotatably driving portions and detects a rotation angle of the rotary shaft of each of the rotatably driving portions; and floor-reaction-force detecting portions (21,22;348, 349; 538, 539; 1154, 1163, 1154, 1164) that are placed at a toe part and a heel part, respectively, of a sole of a shoe worn by the wearer, and detects whether a load greater than or equal to a predetermined value acts on a toe and a heel. two rotatably driving portions (12;212;1001) that are located near opposite lateral sides in a right-left direction of a waist of a wearer wearing the power assist robot apparatus, respectively, and produce drive torque for assisting a movement of the wearer's upper body and thighs in a direction to follow the movement of the wearer's upper body and thighs; an upper-body frame that is placed at the wearer's chest and waist, and holds the two rotatably driving portions; two thigh frames (19,20;221,223;310;506;1006), each of which has one end fixed to a rotary shaft of its associated rotatably driving portion and has the other end placed at a lateral side of a thigh; a first angle detecting portion that detects an angle of turning motion of the wearer's upper body about a right-left axis thereof; a second angle detecting portion that is disposed in each of the two rotatably driving portions and detects a rotation angle of the rotary shaft of each of the rotatably driving portions; and floor-reaction-force detecting portions (21,22;348, 349; 538, 539; 1154, 1163, 1154, 1164) that are placed at a toe part and a heel part, respectively, of a sole of a shoe worn by the wearer, and detects whether a load greater than or equal to a predetermined value acts on a toe and a heel.
A polypeptide which is a fusion between a reporter component and a protein of interest, wherein the reporter component consists of a polypeptide of SEQ ID NO:2, SEQ ID NO: 3, SEQ ID NO:4, SEQ ID NO:5, SEQ ID NO:6, SEQ ID NO:8 or SEQ ID NO:9.
A switch circuit comprising: a first transistor having a source terminal, a drain terminal, and a gate; a power supply providing a first gate voltage; and a coupling circuit to couple a switch signal to the gate, wherein the coupling circuit is adapted to turn the first transistor 'off' when the switch signal is 'low', characterized in that the coupling circuit to couple the switch signal to the gate comprises: a second transistor coupling the first gate voltage to the gate of the first transistor; third and fourth transistors (401, 411) coupled to a first node and a second node, wherein the first node is coupled to the source of the first transistor and a drain of the third transistor, a gate and a source of the third transistor and a source of the fourth transistor are coupled to the second node, a gate of the fourth transistor is coupled to the first node, and a drain of the fourth transistor is coupled to ground; and a fifth transistor coupling the gate of the first transistor to the second node; wherein the coupling circuit is adapted to provide the switch signal to a gate of the second transistor and to a gate of the fifth transistor. a first transistor having a source terminal, a drain terminal, and a gate; a power supply providing a first gate voltage; and a coupling circuit to couple a switch signal to the gate, wherein the coupling circuit is adapted to turn the first transistor 'off' when the switch signal is 'low', characterized in that the coupling circuit to couple the switch signal to the gate comprises: a second transistor coupling the first gate voltage to the gate of the first transistor; third and fourth transistors (401, 411) coupled to a first node and a second node, wherein the first node is coupled to the source of the first transistor and a drain of the third transistor, a gate and a source of the third transistor and a source of the fourth transistor are coupled to the second node, a gate of the fourth transistor is coupled to the first node, and a drain of the fourth transistor is coupled to ground; and a fifth transistor coupling the gate of the first transistor to the second node; wherein the coupling circuit is adapted to provide the switch signal to a gate of the second transistor and to a gate of the fifth transistor. a second transistor coupling the first gate voltage to the gate of the first transistor; third and fourth transistors (401, 411) coupled to a first node and a second node, wherein the first node is coupled to the source of the first transistor and a drain of the third transistor, a gate and a source of the third transistor and a source of the fourth transistor are coupled to the second node, a gate of the fourth transistor is coupled to the first node, and a drain of the fourth transistor is coupled to ground; and a fifth transistor coupling the gate of the first transistor to the second node; wherein the coupling circuit is adapted to provide the switch signal to a gate of the second transistor and to a gate of the fifth transistor.
A communications method performed by a terminal device, the method comprising the steps of: receiving a cell global identifier, CGI, request message with respect to a target cell from a network device; and determining, based on a capability of the terminal device, whether to report a CGI of the target cell to the network device, wherein the capability is related to a type of a first-type network, and the target cell belongs to the first-type network; wherein the first-type network comprises any one of the following networks: a public land mobile network, a standalone non-public network, a non-standalone non-public network, and a non-terrestrial network. receiving a cell global identifier, CGI, request message with respect to a target cell from a network device; and determining, based on a capability of the terminal device, whether to report a CGI of the target cell to the network device, wherein the capability is related to a type of a first-type network, and the target cell belongs to the first-type network; wherein the first-type network comprises any one of the following networks: a public land mobile network, a standalone non-public network, a non-standalone non-public network, and a non-terrestrial network.
Inductor for induction thermography, which is configured at least in a subregion as a rectangularly wound conductor, characterized in that the conductor comprises a closed conductor loop which, apart from a conductor which forms the conductor loop, is free of electrical components.