mhurhangee/patent-ind-claim-en huggingface dataset:
A method for modulating economizer capacity in a vapor compression system to prevent a condition that may exceed vapor compression system design limits, the method comprising: providing an economizer circuit in a vapor compression system, the economizer circuit having a vessel , an inlet line to the vessel from a condenser , an outlet line connecting the vessel and a compressor and a valve positioned in one of the inlet line to the vessel or the outlet line to the compressor ; measuring an operating parameter associated with the compressor ; and comparing the measured operating parameter to a predetermined value associated with an operating limit for the measured operating parameter, the predetermined value being less than a corresponding value of the measured operating parameter that initiates a vapour compression system shutdown, reducing the compressor capacity via throttling flow through the economizer circuit to avoid undesirable vapor compression system conditions, wherein incrementally closing the valve in response to the measured operating parameter exceeding the predetermined value, characterized in that a closure amount for the valve is a variable amount proportional to a difference between the measured operating parameter and the predetermined value. providing an economizer circuit in a vapor compression system, the economizer circuit having a vessel , an inlet line to the vessel from a condenser , an outlet line connecting the vessel and a compressor and a valve positioned in one of the inlet line to the vessel or the outlet line to the compressor ; measuring an operating parameter associated with the compressor ; and comparing the measured operating parameter to a predetermined value associated with an operating limit for the measured operating parameter, the predetermined value being less than a corresponding value of the measured operating parameter that initiates a vapour compression system shutdown, reducing the compressor capacity via throttling flow through the economizer circuit to avoid undesirable vapor compression system conditions, wherein incrementally closing the valve in response to the measured operating parameter exceeding the predetermined value, characterized in that a closure amount for the valve is a variable amount proportional to a difference between the measured operating parameter and the predetermined value.
A method of fabricating a solar cell array comprising: providing an assembly fixture having a smooth, concave surface; mounting a supporting film layer composed of ehylene tetrafluorethylene (ETFE) directly on the surface of the fixture; mounting a pressure sensitive adhesive directly over the supporting film layer; mounting an array of interconnected solar cells having a front light receiving side and a back side, with the front side being mounted directly over the adhesive; mounting an uncured supporting film composed of a composite material directly on the back side of the solar cells; co-curing of the film of composite material to bond the film of composite material directly to the back side of the solar cells; and removing the ETFE film layer with the array of interconnected solar cells and the bonded and cured film of composite material from the assembly fixture. providing an assembly fixture having a smooth, concave surface; mounting a supporting film layer composed of ehylene tetrafluorethylene (ETFE) directly on the surface of the fixture; mounting a pressure sensitive adhesive directly over the supporting film layer; mounting an array of interconnected solar cells having a front light receiving side and a back side, with the front side being mounted directly over the adhesive; mounting an uncured supporting film composed of a composite material directly on the back side of the solar cells; co-curing of the film of composite material to bond the film of composite material directly to the back side of the solar cells; and removing the ETFE film layer with the array of interconnected solar cells and the bonded and cured film of composite material from the assembly fixture.
Method of operating a user equipment in a new radio, NR, radio access network, the method comprising determining, based on a predefined symbol configuration being defined in a standard or being available without specific configuration from a network or network node, a starting symbol of a scheduled transmission pertaining to a physical uplink control channel, PUCCH, carrying uplink control information comprising Hybrid Acknowledgement Repeat Request, HARQ, feedback in a transmission timing structure, the transmission timing structure representing a time interval corresponding to a substructure of a slot and comprising a plurality of symbols; the predefined symbol configuration indicating a set of more than one symbol, the starting symbol being selectable from the set based on control signaling indicating which of the symbols of the set is to be used as a starting symbol; the predefined symbol configuration further indicating the duration of the scheduled transmission in number of symbols; and transmitting the uplink control information on the PUCCH based on the determined starting symbol. method comprising determining, based on a predefined symbol configuration being defined in a standard or being available without specific configuration from a network or network node, a starting symbol of a scheduled transmission pertaining to a physical uplink control channel, PUCCH, carrying uplink control information comprising Hybrid Acknowledgement Repeat Request, HARQ, feedback in a transmission timing structure, the transmission timing structure representing a time interval corresponding to a substructure of a slot and comprising a plurality of symbols; the predefined symbol configuration indicating a set of more than one symbol, the starting symbol being selectable from the set based on control signaling indicating which of the symbols of the set is to be used as a starting symbol; the predefined symbol configuration further indicating the duration of the scheduled transmission in number of symbols; and transmitting the uplink control information on the PUCCH based on the determined starting symbol.
Actuator device for an adjustable roll stabilizer of a motor vehicle, having a housing which extends in the direction of a rotation axis , and an actuator which is disposed in said housing , wherein the actuator device is able to be operated to rotate two stabilizer portions that are attachable to opposite ends of the actuator device relative to one another about the rotation axis , characterized in that an engagement contour is configured on the housing , which engagement contour is suitable for the counter-holding action when applying a torque (M1) directed about the rotation axis to the housing , wherein disposed on the output-proximal end of the actuator device is an output bearing for rotatably mounting a gearbox component in relation to the housing , said output bearing being secured axially in relation to the housing by a bearing screw connection , wherein the engagement contour is configured on a housing cover portion of the housing which is disposed on an end of the actuator device that lies opposite the output-proximal bearing screw connection .
A vehicle headrest comprising: an electro-acoustic transducer ; an acoustic enclosure defining an acoustic chamber , the acoustic enclosure supporting the electro-acoustic transducer such that a rear radiating surface of the electro-acoustic transducer radiates acoustic energy into the acoustic chamber; a cushion member coupled to the acoustic enclosure for supporting a user's head; and a grille member overlying a front radiating surface of the electro-acoustic transducer , the grille member comprising a 3D printed lattice. an electro-acoustic transducer ; an acoustic enclosure defining an acoustic chamber , the acoustic enclosure supporting the electro-acoustic transducer such that a rear radiating surface of the electro-acoustic transducer radiates acoustic energy into the acoustic chamber; a cushion member coupled to the acoustic enclosure for supporting a user's head; and a grille member overlying a front radiating surface of the electro-acoustic transducer , the grille member comprising a 3D printed lattice.
Harvesting unit comprising a chassis intended to be moved along rows of plants to be harvested, and a shaker system including at least one shaker device , said shaker device comprising: - a drum operable to detach a crop from said plants, said drum comprising a drum shaft mounted for rotation on said chassis about a vertical axis (A) and shaker organs mounted to said drum shaft; - a rotational driving mechanism of said drum , said mechanism comprising a driven body and a first driving device engaged with said driven body to steer its rotation about said vertical axis (A); - an oscillatory driving mechanism of said drum about said vertical axis (A), said mechanism comprising at least one eccentric module and a second driving device engaged with said module to steer its rotation, said module being drivingly connected to the drum shaft by a mechanical member operable to transform the eccentric rotation of said module into an oscillation of said drum shaft , the eccentric module is mounted for rotation on the driven body of the rotational driving mechanism, the mechanical member being arranged to transmit the rotation of said driven body to the drum shaft ; said harvesting unit being characterized in that the mechanical member comprises a window wherein the eccentric module is mounted, the mounting of said eccentric module in said window being operable to transform the rotation of said eccentric module into an oscillation of the mechanical member . - a drum operable to detach a crop from said plants, said drum comprising a drum shaft mounted for rotation on said chassis about a vertical axis (A) and shaker organs mounted to said drum shaft; - a rotational driving mechanism of said drum , said mechanism comprising a driven body and a first driving device engaged with said driven body to steer its rotation about said vertical axis (A); - an oscillatory driving mechanism of said drum about said vertical axis (A), said mechanism comprising at least one eccentric module and a second driving device engaged with said module to steer its rotation, said module being drivingly connected to the drum shaft by a mechanical member operable to transform the eccentric rotation of said module into an oscillation of said drum shaft , the eccentric module is mounted for rotation on the driven body of the rotational driving mechanism, the mechanical member being arranged to transmit the rotation of said driven body to the drum shaft ;
A shelf module , comprising: a frame configured to couple in a standard rack slot; and horizontal shelf members and vertical shelf members coupled to the frame, wherein at least two of the shelf members are configurable to be positioned within the frame to form two or more partial width slots for receiving electrical modules, wherein the horizontal shelf members and vertical shelf members may be adjusted from one position to another within the frame such that: at least one of the vertical shelf members is adjustable to alter the width of at least one of the slots, and at least one of the horizontal shelf members is adjustable to alter the height of at least one of the slots; and wherein at least one of the horizontal shelf members is adjustable to alter a height of at least one partial width slot in increments that are a multiple of 1/4 of a rack unit. a frame configured to couple in a standard rack slot; and horizontal shelf members and vertical shelf members coupled to the frame, wherein at least two of the shelf members are configurable to be positioned within the frame to form two or more partial width slots for receiving electrical modules, wherein the horizontal shelf members and vertical shelf members may be adjusted from one position to another within the frame such that: at least one of the vertical shelf members is adjustable to alter the width of at least one of the slots, and at least one of the horizontal shelf members is adjustable to alter the height of at least one of the slots; and wherein at least one of the horizontal shelf members is adjustable to alter a height of at least one partial width slot in increments that are a multiple of 1/4 of a rack unit. wherein at least two of the shelf members are configurable to be positioned within the frame to form two or more partial width slots for receiving electrical modules, wherein the horizontal shelf members and vertical shelf members may be adjusted from one position to another within the frame such that: at least one of the vertical shelf members is adjustable to alter the width of at least one of the slots, and at least one of the horizontal shelf members is adjustable to alter the height of at least one of the slots; and wherein at least one of the horizontal shelf members is adjustable to alter a height of at least one partial width slot in increments that are a multiple of 1/4 of a rack unit. at least one of the vertical shelf members is adjustable to alter the width of at least one of the slots, and at least one of the horizontal shelf members is adjustable to alter the height of at least one of the slots; and wherein at least one of the horizontal shelf members is adjustable to alter a height of at least one partial width slot in increments that are a multiple of 1/4 of a rack unit.
A method for aligning a spectrometer , wherein a radiation source , a crystal analyzer , and a detector of the spectrometer are all positioned on an instrument plane, the method comprising: rotating the crystal analyzer about an axis that is within the instrument plane and perpendicular to a rotation plane such that (i) a reciprocal lattice vector of the crystal analyzer is within the instrument plane or (ii) a component of the reciprocal lattice vector within the rotation plane is perpendicular to the instrument plane, wherein an origin of the reciprocal lattice vector is located on the axis; and tilting the crystal analyzer or translating the detector such that the reciprocal lattice vector bisects a line segment that is bounded by the detector and the radiation source. rotating the crystal analyzer about an axis that is within the instrument plane and perpendicular to a rotation plane such that (i) a reciprocal lattice vector of the crystal analyzer is within the instrument plane or (ii) a component of the reciprocal lattice vector within the rotation plane is perpendicular to the instrument plane, wherein an origin of the reciprocal lattice vector is located on the axis; and tilting the crystal analyzer or translating the detector such that the reciprocal lattice vector bisects a line segment that is bounded by the detector and the radiation source.
A safety-level functional control system for a steam atmospheric emission system of a nuclear power plant, wherein the steam atmospheric emission system comprises three independent emission loops, each emission loop is connected to a corresponding steam generator in a primary circuit of the nuclear power plant, and each emission loop comprises a main steam relief isolation valve (MSRIV) and a main steam relief control valve (MSRCV) connected in series, characterized in that : the safety-level function control system comprises three independent control columns being connected to the steam atmospheric emission system, each independent control column comprises a first control sub-column for controlling MSRIV and a second control sub-column for controlling MSRCV, each MSRIV is respectively connected to the first control sub-column of the three independent control columns, such that it is configured to execute corresponding control operations when a first control signal sent by at least two first control sub-columns is received; and each MSRCV is connected to a second control sub-column in one independent control column, and different MSRCVs are connected to different second control sub-columns, such that it is configured to execute safety function of the steam atmospheric emission system when a second control signal independently sent by a corresponding second control sub-column is received. the safety-level function control system comprises three independent control columns being connected to the steam atmospheric emission system, each independent control column comprises a first control sub-column for controlling MSRIV and a second control sub-column for controlling MSRCV, each MSRIV is respectively connected to the first control sub-column of the three independent control columns, such that it is configured to execute corresponding control operations when a first control signal sent by at least two first control sub-columns is received; and each MSRCV is connected to a second control sub-column in one independent control column, and different MSRCVs are connected to different second control sub-columns, such that it is configured to execute safety function of the steam atmospheric emission system when a second control signal independently sent by a corresponding second control sub-column is received.
A communication middleware , characterized in that the communication middleware is for managing multicast channels between a server hosting a massively multi-user online application and a client using the application connected through a communication network , the server managing a virtual world where a user of the client evolves, the virtual world being decomposed into zones simulated by one or more clients, wherein: - the communication middleware manages compulsory multicast channels for delivering compulsory data from the application run by the server to an application run by the client over the communication network , a respective multicast address being allocated to each respective zone so that each respective zone is attached to a respective compulsory multicast channel, the client subscribing mandatorily to the respective compulsory multicast channel of each zone that the client wants to simulate; and - the communication middleware manages one or more optional multicast channels for delivering optional data from the application run by the server to the application run by the client over the communication network , the one or more optional multicast channels being used for temporary or localized communications, each optional multicast channel being created upon a request of the application run by the client or of a user of the application run by the client. - the communication middleware manages compulsory multicast channels for delivering compulsory data from the application run by the server to an application run by the client over the communication network , a respective multicast address being allocated to each respective zone so that each respective zone is attached to a respective compulsory multicast channel, the client subscribing mandatorily to the respective compulsory multicast channel of each zone that the client wants to simulate; and - the communication middleware manages one or more optional multicast channels for delivering optional data from the application run by the server to the application run by the client over the communication network , the one or more optional multicast channels being used for temporary or localized communications, each optional multicast channel being created upon a request of the application run by the client or of a user of the application run by the client.
A display device including a display area (DA) and a non-display area (NA) located on a periphery of the display area (DA), the display area (DA) including a sensor area (SA) for an optical sensor and a non-sensor area (NSA), the display device comprising: a substrate portion ; a thin film transistor layer disposed over an entire surface of the substrate portion and comprising at least one thin film transistor (T1-T7); and a light emitting diode disposed on the thin film transistor layer , wherein a thickness of the substrate portion in the sensor area (SA) is smaller than a thickness of the substrate portion in the non-sensor area (NSA), and a hole passes through at least a portion of the substrate portion , in the sensor area (SA), in a thickness direction, wherein the substrate portion comprises a first flexible substrate , a second flexible substrate facing the first flexible substrate , and a first barrier layer disposed between the first flexible substrate and the second flexible substrate , and the first flexible substrate and the second flexible substrate include polyimide, wherein the first flexible substrate comprises a through hole passing therethrough in the sensor area (SA) in a thickness direction and exposes at least part of a bottom surface of the first barrier layer or a bottom surface of the second flexible substrate , characterized in that a coarseness level of the bottom surface of the first barrier layer or of the second flexible substrate in the sensor area (SA) is greater than a coarseness level of the bottom surface of the first barrier layer or of the second flexible substrate in the non-sensor area (NSA). a substrate portion ; a thin film transistor layer disposed over an entire surface of the substrate portion and comprising at least one thin film transistor (T1-T7); and a light emitting diode disposed on the thin film transistor layer , wherein a thickness of the substrate portion in the sensor area (SA) is smaller than a thickness of the substrate portion in the non-sensor area (NSA), and a hole passes through at least a portion of the substrate portion , in the sensor area (SA), in a thickness direction, wherein the substrate portion comprises a first flexible substrate , a second flexible substrate facing the first flexible substrate , and a first barrier layer disposed between the first flexible substrate and the second flexible substrate , and the first flexible substrate and the second flexible substrate include polyimide, wherein the first flexible substrate comprises a through hole passing therethrough in the sensor area (SA) in a thickness direction and exposes at least part of a bottom surface of the first barrier layer or a bottom surface of the second flexible substrate , characterized in that a coarseness level of the bottom surface of the first barrier layer or of the second flexible substrate in the sensor area (SA) is greater than a coarseness level of the bottom surface of the first barrier layer or of the second flexible substrate in the non-sensor area (NSA).
A non-aqueous electrolyte battery , comprising: a positive electrode ; a negative electrode ; a separator ; and a non-aqueous electrolyte, wherein the negative electrode comprises a lithium layer, a lithium-aluminum alloy layer formed on a surface of the lithium layer, and a carbon layer on the lithium-aluminum alloy layer. a positive electrode ; a negative electrode ; a separator ; and a non-aqueous electrolyte, wherein the negative electrode comprises a lithium layer, a lithium-aluminum alloy layer formed on a surface of the lithium layer, and a carbon layer on the lithium-aluminum alloy layer.