mhurhangee/ep-ind-claims huggingface dataset:
A pouch-shaped secondary battery comprising an electrode assembly constituted by a positive electrode and a negative electrode stacked in a state in which a separator is interposed between the positive electrode and the negative electrode, an electrode tab (121, 122), an electrode lead (124, 125), a sealing layer, and a pouch-shaped battery case for receiving the electrode assembly, wherein the pouch-shaped secondary battery comprises: a first electrode lead having one end connected to the electrode tab (121, 122) of the electrode assembly and the other end extending into a joint of the pouch-shaped battery case; a second electrode lead detachably connected to the first electrode lead, the second electrode lead extending out of the pouch-shaped battery case so as to be exposed; a connection layer for coupling the first electrode lead and the second electrode lead to each other; and a sealing layer for coupling the electrode lead and the pouch-shaped battery case to each other, wherein the connection layer is an adhesive layer made of a conductive polymer, wherein the sealing layer is formed so as to wrap a coupling portion between the electrode lead and the connection layer, wherein the sealing layer is provided at one end thereof with a notch, the notch being formed at a portion at which the sealing layer and the electrode lead do not overlap each other. a first electrode lead having one end connected to the electrode tab (121, 122) of the electrode assembly and the other end extending into a joint of the pouch-shaped battery case; a second electrode lead detachably connected to the first electrode lead, the second electrode lead extending out of the pouch-shaped battery case so as to be exposed; a connection layer for coupling the first electrode lead and the second electrode lead to each other; and a sealing layer for coupling the electrode lead and the pouch-shaped battery case to each other, wherein the connection layer is an adhesive layer made of a conductive polymer, wherein the sealing layer is formed so as to wrap a coupling portion between the electrode lead and the connection layer, wherein the sealing layer is provided at one end thereof with a notch, the notch being formed at a portion at which the sealing layer and the electrode lead do not overlap each other.
An accelerometer comprising: a controller; a light source operatively coupled to said controller; a bifurcated waveguide coupled to said light source and configured to receive light output by said light source, said bifurcated waveguide comprising: a first waveguide portion; and a second waveguide portion; a first resonator operatively coupled to said controller, said first resonator configured to receive light from said first waveguide portion, said first resonator comprising a first proof mass; and a second resonator operatively coupled to said controller, said second resonator configured to receive light from said second waveguide portion, said second resonator comprising a second proof mass; wherein said first proof mass comprises: a central portion; a first spring; a first portion coupled to said central portion by said first spring; a second spring; and a second portion coupled to said central portion by said second spring. a controller; a light source operatively coupled to said controller; a bifurcated waveguide coupled to said light source and configured to receive light output by said light source, said bifurcated waveguide comprising: a first waveguide portion; and a second waveguide portion; a first waveguide portion; and a second waveguide portion; a first resonator operatively coupled to said controller, said first resonator configured to receive light from said first waveguide portion, said first resonator comprising a first proof mass; and a second resonator operatively coupled to said controller, said second resonator configured to receive light from said second waveguide portion, said second resonator comprising a second proof mass; a central portion; a first spring; a first portion coupled to said central portion by said first spring; a second spring; and a second portion coupled to said central portion by said second spring.
A modular metering system comprising a master module and a plurality of slave modules each arranged to measure a parameter, the master module being arranged to communicate electronically with the slave modules, characterised in that a plurality of the slave modules comprise electricity meters, each being arranged to measure electricity supplied to a remotely located load, and high voltage measurement signals are provided by the master module to the electricity meters.
A golf cart that is autonomously transportable in a travel direction, having: a frame; at least three wheels; an energy store; at least two drives integrated in the frame, each of the drives being coupled to one of the wheels, driven wheels being opposite each other transverse to the direction of travel; and a controller for the drives, wherein the frame comprises a tube and a handle disposed thereon, wherein the handle comprises a beam element, a handle sleeve, and at least one connecting element, wherein the handle sleeve is displaceably supported on the beam element and can be translationally displaced in two directions oriented orthogonally to each other, and wherein said relative motions can be detected and analyzed by a sensor and an analysis unit for controlling the speed and direction of travel. a frame; at least three wheels; an energy store;
A method of initiating a ranging operation between a first device and a second device, the method performed by the second device and comprising: transmitting, to the first device, a fine timing measurement, FTM request frame indicating a number of types of non-legacy acknowledgement, ACK frame formats supported by the second device, wherein the number of types of non-legacy ACK frame formats comprises one or more members of the group consisting of a high efficiency, HE protocol, a very high throughput, VHT protocol, and a high throughput, HT protocol, and the legacy ACK frame format comprises a non-HT protocol; receiving, from the first device, a first FTM frame indicating capabilities of the first device to receive each of the number of types of non-legacy ACK frame formats supported by the second device; selecting one of the number of types of non-legacy ACK frame formats or a legacy ACK frame format based, at least in part, on the indicated capabilities of the first device; and transmitting an ACK frame to the first device in response to reception of the first FTM frame, the ACK frame transmitted using the selected ACK frame format. transmitting, to the first device, a fine timing measurement, FTM request frame indicating a number of types of non-legacy acknowledgement, ACK frame formats supported by the second device, wherein the number of types of non-legacy ACK frame formats comprises one or more members of the group consisting of a high efficiency, HE protocol, a very high throughput, VHT protocol, and a high throughput, HT protocol, and the legacy ACK frame format comprises a non-HT protocol; receiving, from the first device, a first FTM frame indicating capabilities of the first device to receive each of the number of types of non-legacy ACK frame formats supported by the second device; selecting one of the number of types of non-legacy ACK frame formats or a legacy ACK frame format based, at least in part, on the indicated capabilities of the first device; and transmitting an ACK frame to the first device in response to reception of the first FTM frame, the ACK frame transmitted using the selected ACK frame format.
A heat transfer plate that is configured to perform a heat exchange with a thermal processing object, comprising: a metal main body that is formed in a flat plate shape; and a plurality of jacket chambers that are formed in an interior of the metal main body and inside each of which is enclosed a gas-liquid two-phase heating medium, wherein the plurality of jacket chambers extend outwards in a radial configuration from a central portion of a heat transfer surface that is set as one surface of the metal main body, each one of the plurality of jacket chambers has a curved or bent configuration when looked at in plan view, characterized in that the plurality of jacket chambers are mutually independent of each other, or the plurality of jacket chambers are in mutual communication with each other via the central portion of the heat transfer plate. a metal main body that is formed in a flat plate shape; and a plurality of jacket chambers that are formed in an interior of the metal main body and inside each of which is enclosed a gas-liquid two-phase heating medium, wherein the plurality of jacket chambers extend outwards in a radial configuration from a central portion of a heat transfer surface that is set as one surface of the metal main body, each one of the plurality of jacket chambers has a curved or bent configuration when looked at in plan view, characterized in that the plurality of jacket chambers are mutually independent of each other, or the plurality of jacket chambers are in mutual communication with each other via the central portion of the heat transfer plate.
A toilet bidet system that is configured to be positioned onto a separate toilet frame of a vacuum toilet, the toilet bidet system comprising: a bidet rinse ring configured to cooperate with the toilet frame, the bidet rinse ring comprising a wand housing and a wand support, wherein the bidet rinse ring is removable from the toilet frame.
An x-ray beam control system, comprising: a feedback control loop circuit, including a modulation circuit, configured to generate a control signal; an x-ray tube, having a filament response profile of tube current versus filament temperature which is non-linear, the filament response profile being stored, and being generated unique for the x-ray tube in place; and a compensation circuit configured to receive the control signal and to modify the control signal to output a modified control signal according to a compensating function of the control signal that is matched to the filament response profile; wherein: the modulation circuit is configured to receive the modified control signal and generate a filament drive signal in accordance with the modified control signal; the x-ray tube is configured to receive the filament drive signal at a filament thereof, and output a tube current signal indicative of the x-ray tube current and having a linear response to the control signal; and the feedback control loop circuit is configured to receive the tube current signal, such that the feedback control loop circuit is configured to generate the control signal based on the tube current signal by closed loop control. a feedback control loop circuit, including a modulation circuit, configured to generate a control signal; an x-ray tube, having a filament response profile of tube current versus filament temperature which is non-linear, the filament response profile being stored, and being generated unique for the x-ray tube in place; and a compensation circuit configured to receive the control signal and to modify the control signal to output a modified control signal according to a compensating function of the control signal that is matched to the filament response profile; wherein: the modulation circuit is configured to receive the modified control signal and generate a filament drive signal in accordance with the modified control signal; the x-ray tube is configured to receive the filament drive signal at a filament thereof, and output a tube current signal indicative of the x-ray tube current and having a linear response to the control signal; and the feedback control loop circuit is configured to receive the tube current signal, such that the feedback control loop circuit is configured to generate the control signal based on the tube current signal by closed loop control. the modulation circuit is configured to receive the modified control signal and generate a filament drive signal in accordance with the modified control signal; the x-ray tube is configured to receive the filament drive signal at a filament thereof, and output a tube current signal indicative of the x-ray tube current and having a linear response to the control signal; and the feedback control loop circuit is configured to receive the tube current signal, such that the feedback control loop circuit is configured to generate the control signal based on the tube current signal by closed loop control.
An apparatus comprising: a first filter chain to process a first wireless medium; a second filter chain to process a second wireless medium; and a filter manager to obtain respective properties of filter drivers (110a-110n, 120a-120n), match the characteristics of input data to respective properties of filter drivers, and build the first filter chain and the second chain upon completion of matching, wherein the filter manager is operable to dynamically remove filter drivers from, and insert filter drivers into, the first or second filter chain, wherein each filter driver in the first or second filter chain implements media access control primitives, and wherein the input data comprises the input data at the filter chain input or at each filter driver input. a first filter chain to process a first wireless medium; a second filter chain to process a second wireless medium; and a filter manager to obtain respective properties of filter drivers (110a-110n, 120a-120n), match the characteristics of input data to respective properties of filter drivers, and build the first filter chain and the second chain upon completion of matching, wherein the filter manager is operable to dynamically remove filter drivers from, and insert filter drivers into, the first or second filter chain, wherein each filter driver in the first or second filter chain implements media access control primitives, and wherein the input data comprises the input data at the filter chain input or at each filter driver input.
A retractable outlet device with mechanical guiding reset function, comprising a support mechanism and an outlet mechanism; the outlet mechanism comprises an outlet portion, a retractable flexible pipe, a weight element and a guiding device, an end of the outlet portion is connected to the retractable flexible pipe; the retractable flexible pipe passes through the support mechanism to connect to the weight element, an end face of the outlet mechanism is contacted with a front end face of the support mechanism by the weight of the weight element; the outlet mechanism is disposed with the guiding device and the support mechanism is disposed with a guiding groove in coupling way; the guiding groove is disposed with continuously arranged guiding surfaces from the lowest position to the highest position in an installed state of the retractable outlet device; the guiding device and the guiding groove are adapted to move relatively under the gravity of the weight element, making the guiding device move to the highest position of the guiding groove along the guiding surfaces, making the end face of the outlet mechanism contacted with the front end face of the support mechanism and automatically reset in the rotational direction, wherein the two ends of the guiding groove are the lowest position, the highest position is at the center of the guiding groove; the guiding surface is an arc surface and wherein the retractable outlet device comprises two guiding grooves with two ends of them respectively connected and symmetrically arranged in the length direction of an accommodating chamber.
A projection display, for displaying an image to a viewer, including a first plate-like waveguide made of light transmissive material, an image-providing light source device arranged to inject image bearing light into the first plate-like waveguide; an input grating within the first plate waveguide for receiving the image bearing light and directing the light to propagate internally by total internal reflection; a transmission grating on or within the first plate-like waveguide arranged to direct said image bearing light internally along the first plate-like waveguide and through which the image bearing light is outputted from the first plate-like waveguide, and a second plate-like waveguide made of light transmissive and transparent material, which second plate-like waveguide includes a coupling grating arranged to receive the image bearing light from the first plate-like waveguide, which second plate-like waveguide further includes an exit grating arranged to diffract received image bearing light out of the second plate-like waveguide, characterised in that the diffractive dispersion associated with the input grating is oppositely matched with the dispersion associated with the transmission grating thereby causing the net chromatic dispersion of the light output from the first plate waveguide to approach or substantially equal zero, and the coupling grating and the exit grating have substantially the same spatial frequency, such that the diffractive dispersion associated with the coupling grating is oppositely matched with the dispersion associated with the exit grating thereby causing the net chromatic dispersion of the light output from the second plate waveguide to approach or substantially equal zero, such that the chromatic image displayed to viewer is substantially free of chromatic aberration.
A reversible window suspension device comprising a window frame, at least two pivot arms (32, 33, 34), a slide and a guide which includes an open channel formed of a profiled element, which profiled element includes two mutually opposing side walls (42, 43), wherein said pivot arms can be pivotally fixed to the frame for movement in respective movement planes that are mutually parallel and perpendicular to a rotational axis for a window sash, which by means of the pivot arms is rotatably fixable to the frame and wherein the slide is fixable to the sash and arranged to be displaceably received by the guide arranged at the frame, characterized in that the profiled element is formed as an integrated part of the window frame and that the open channel accommodates the movement plane of at least one of the pivot arms and is delimited by a guide wall which extends to some extent from a first of said side walls towards a second of said side walls, thereby forming an opening of the open channel, between the free end of the guide wall and the second side wall, which guide wall, in coaction with the slide, guides movement of said slide, wherein the channel and said pivot arm are adapted to permit the insertion of at least a part of said pivot arm into the channel, through said opening, past the guide wall.
A composition comprising 3,5,4'-trihydroxy-6,7,3'-trimethoxyflavone, for use in treating a mammal suffering from or susceptible to a neurodegenerative or neuroinflammatory condition.
A cabin pressure control and monitoring system (100, 300, 500) comprising: an outflow valve (150, 350); a manual control panel (160, 200, 260) comprising a selector switch (202, 222) and configured to generate a signal, wherein a value encoded in the signal is dependent on a position of the selector switch; and a controller (122, 320, 522) configured to: receive the signal from the manual control panel; determine a target rate of change for a cabin pressure based on the value encoded in the signal; and control the outflow valve based on the target rate of change, wherein the controller is configured to receive a feedback signal from a pressure sensor, and wherein to control the outflow valve, the controller is configured to control the outflow valve based on the feedback signal to achieve the target rate of change. an outflow valve (150, 350); a manual control panel (160, 200, 260) comprising a selector switch (202, 222) and configured to generate a signal, wherein a value encoded in the signal is dependent on a position of the selector switch; and a controller (122, 320, 522) configured to: receive the signal from the manual control panel; determine a target rate of change for a cabin pressure based on the value encoded in the signal; and control the outflow valve based on the target rate of change, wherein the controller is configured to receive a feedback signal from a pressure sensor, and receive the signal from the manual control panel; determine a target rate of change for a cabin pressure based on the value encoded in the signal; and control the outflow valve based on the target rate of change, wherein the controller is configured to receive a feedback signal from a pressure sensor, and wherein to control the outflow valve, the controller is configured to control the outflow valve based on the feedback signal to achieve the target rate of change.
An expandable device comprising: a first endplate; a second endplate; a body portion; a translation member, and an actuation member, wherein the body portion extends along at least a length of the first endplate and the second endplate, the body portion including an interference nut; the translation member is receivable within the body portion in between the first endplate and the second endplate; the actuation member is insertable through the body portion and into contact with the translation member, wherein the actuation member passes through the interference nut, the expandable device being characterized in that it further comprises at least two stabilizing members (422, 424) positioned through the body portion and in contact with the translation member, wherein each of the at least two stabilizing members (422, 424) includes a substantially smooth portion (432, 434) and a threaded portion (434, 444).