mhurhangee/patent-ind-claim-en huggingface dataset:
A scheduling method, applied to a network device, or a chip or a chip set in a network device, comprising: using (S501) a scheduling model for M times, wherein each time the scheduling model is used, status information of K terminal devices in n to-be-scheduled terminal devices is input to the scheduling model, the scheduling model outputs scheduling weights respectively corresponding to the K terminal devices, the scheduling model is a neural network model obtained based on the quantity K of terminal devices that is input each time, M is an integer greater than or equal to 1, K is an integer greater than 1, and n is an integer greater than K; and determining (S502) a decision result based on the scheduling weights output by the scheduling model for M times, wherein the decision result indicates a scheduled terminal device. using (S501) a scheduling model for M times, wherein each time the scheduling model is used, status information of K terminal devices in n to-be-scheduled terminal devices is input to the scheduling model, the scheduling model outputs scheduling weights respectively corresponding to the K terminal devices, the scheduling model is a neural network model obtained based on the quantity K of terminal devices that is input each time, M is an integer greater than or equal to 1, K is an integer greater than 1, and n is an integer greater than K; and determining (S502) a decision result based on the scheduling weights output by the scheduling model for M times, wherein the decision result indicates a scheduled terminal device.
A cooling system for landing craft , which cools the at least one propulsion engine of the landing craft and that comprises a series of cooling liquid circulation conduits and at least one pump , characterised in that it additionally comprises: - at least one stern cooling liquid inlet , disposed on the stern of the landing craft , - at least one bow cooling liquid inlet disposed on each side of the landing craft , and - at least one valve which allows the passage of the cooling liquid from at least one stern inlet , from at least one bow inlet or from at least one stern inlet and at least one bow inlet simultaneously. - at least one stern cooling liquid inlet , disposed on the stern of the landing craft , - at least one bow cooling liquid inlet disposed on each side of the landing craft , and - at least one valve which allows the passage of the cooling liquid from at least one stern inlet , from at least one bow inlet or from at least one stern inlet and at least one bow inlet simultaneously.
A printing device, in particular a 3D printing device , such as a 3D printer, comprising - an extrusion device for melting a material, such as plastic material, and - a 3D printhead for depositing the material melted by the extrusion device onto a surface , with a housing , and a discharge nozzle arranged on the housing , comprising a metering device with a first metering unit and a second metering unit , which are designed respectively for the receiving and metered dispensing of the melted material, wherein the metering device is designed to supply the melted material to an outlet channel of the discharge nozzle through the first metering unit and the second metering unit in an alternating manner or on-the-fly, characterized in that the first metering unit and the second metering unit respectively has a metering piston with a drive. - an extrusion device for melting a material, such as plastic material, and - a 3D printhead for depositing the material melted by the extrusion device onto a surface , with a housing , and a discharge nozzle arranged on the housing , comprising a metering device with a first metering unit and a second metering unit , which are designed respectively for the receiving and metered dispensing of the melted material, wherein the metering device is designed to supply the melted material to an outlet channel of the discharge nozzle through the first metering unit and the second metering unit in an alternating manner or on-the-fly, characterized in that the first metering unit and the second metering unit respectively has a metering piston with a drive.
A method for manufacturing at least a portion of a heat exchanger , comprising: forming a first heat exchanger section comprising a base and a plurality of protrusions (34,35,36;34A,35A,36A;42,43,44,45,49,54,56), the forming of the first heat exchanger section comprising building up at least one protrusion material on the base to form the protrusions (34...56); and attaching the first heat exchanger section to a second heat exchanger section , wherein a plurality of flow channels (38;40) are defined between the first heat exchanger section and the second heat exchanger section ; characterised in that the method further comprises forming the base from cast alloy or wrought alloy base material. forming a first heat exchanger section comprising a base and a plurality of protrusions (34,35,36;34A,35A,36A;42,43,44,45,49,54,56), the forming of the first heat exchanger section comprising building up at least one protrusion material on the base to form the protrusions (34...56); and attaching the first heat exchanger section to a second heat exchanger section , wherein a plurality of flow channels (38;40) are defined between the first heat exchanger section and the second heat exchanger section ; characterised in that the method further comprises forming the base from cast alloy or wrought alloy base material.
Device for covering screed expansion joints in a floor structure in the interior of a building, wherein the device is formed as an expansion joint profile which consists of at least two spaced profile elements which are arranged to be movable with respect to one another and between them form an empty space which is filled with a sealing composition which adheres to at least one surface of the empty space , wherein the sealing composition compensates the changes in distance of the expansion joint of the floor structure , characterised in that an anti-adhesion system , which prevents an adhesive effect of the sealing composition at least at one surface , is arranged in the empty space .
Chronograph , in particular chronograph watch, having a housing and a crown , which is arranged along a crown axis , wherein the chronograph has operating elements for operating the time-measuring function of the chronograph, wherein the operating elements are arranged at an angle to the crown axis , wherein the operating elements are arranged within the chronograph , wherein the chronograph has a covering element for covering the operating elements , wherein, in a starting position, the covering element is arranged flush with the housing , wherein the covering element can be pivoted about an axis , wherein the axis is arranged perpendicularly in relation to the crown axis and so as to intersect the same, wherein, in a pivoted position, the covering element is in contact with one of the operating elements such that the covering element actuates one of the operating elements , characterized in that , in the pivoted position, one portion of the covering element projects out beyond the housing and another portion projects into the housing , wherein the projecting-in portion is assigned to the actuated operating element .
A container closure , comprising: an outer cap including a top wall and an outer sidewall extending downward from the top wall; an inner cap secured within the outer cap , the inner cap including a bottom wall and an inner sidewall extending upwardly from the bottom wall , the inner sidewall is offset from the outer sidewall to define a space between the outer cap and the inner cap for receiving an associated neck portion of an associated container ; a seal secured to the inner cap , the seal including a seal sidewall and a rim extending inwardly from the seal sidewall, the seal sidewall sealingly engaging the inner sidewall and the rim sealingly overlapping the bottom wall , characterized in that the inner cap together with the seal define an air pathway in fluid communication between the space between the outer and inner caps and an air opening formed on the bottom wall of the inner cap and selectively covered by the rim . an outer cap including a top wall and an outer sidewall extending downward from the top wall; an inner cap secured within the outer cap , the inner cap including a bottom wall and an inner sidewall extending upwardly from the bottom wall , the inner sidewall is offset from the outer sidewall to define a space between the outer cap and the inner cap for receiving an associated neck portion of an associated container ; a seal secured to the inner cap , the seal including a seal sidewall and a rim extending inwardly from the seal sidewall, the seal sidewall sealingly engaging the inner sidewall and the rim sealingly overlapping the bottom wall , characterized in that the inner cap together with the seal define an air pathway in fluid communication between the space between the outer and inner caps and an air opening formed on the bottom wall of the inner cap and selectively covered by the rim .
A high-voltage power electronics system in the form of a switchgear, a high voltage direct current, HVDC, system and/or a Flexible Alternating Current Transmission System, FACTS, said system comprising: one or more power equipment devices (12a-b); a power equipment controller ; an enclosure housing the one or more power equipment devices (12a-b); at least one RF, radio frequency, module (3, 3a-b) provided outside the enclosure and comprising circuitry for processing RF transmission signals based on signals provided from the power equipment controller , and for processing received RF signals transmitted from at least one of the one or more power equipment devices (12a-b) to provide signals to the power equipment controller; an RF splitter connected to the at least one RF module (3, 3a-b), the RF splitter being configured to split RF transmission signals received from the at least one RF module (3, 3a-b) to several corresponding RF antenna signals all containing the same RF signals, and a plurality of antennas (6a-f) provided inside the enclosure and configured to transmit each one of the RF antenna signals to at least one of the one or more power equipment devices (12a-b). one or more power equipment devices (12a-b); a power equipment controller ; an enclosure housing the one or more power equipment devices (12a-b); at least one RF, radio frequency, module (3, 3a-b) provided outside the enclosure and comprising circuitry for processing RF transmission signals based on signals provided from the power equipment controller , and for processing received RF signals transmitted from at least one of the one or more power equipment devices (12a-b) to provide signals to the power equipment controller; an RF splitter connected to the at least one RF module (3, 3a-b), the RF splitter being configured to split RF transmission signals received from the at least one RF module (3, 3a-b) to several corresponding RF antenna signals all containing the same RF signals, and a plurality of antennas (6a-f) provided inside the enclosure and configured to transmit each one of the RF antenna signals to at least one of the one or more power equipment devices (12a-b).
Method for regulating a mechanical clutch , with motorized actuation, of a vehicle, comprising the following steps: - determining a master setpoint (Cm) for managing the clutch from actuation of a clutch control ; - validating the clutch setpoint depending on a clutch actuation speed threshold ; - determining a clutch actuation profile depending on an actuation speed threshold of the control, the clutch actuation profile authorizing a duration of the clutch phase that is longer than a minimum clutch duration determined as a function of the engine speed, - applying the predefined clutch profile in the event of the actuation speed threshold of the clutch control being exceeded. - determining a master setpoint (Cm) for managing the clutch from actuation of a clutch control ; - validating the clutch setpoint depending on a clutch actuation speed threshold ; - determining a clutch actuation profile depending on an actuation speed threshold of the control, the clutch actuation profile authorizing a duration of the clutch phase that is longer than a minimum clutch duration determined as a function of the engine speed, - applying the predefined clutch profile in the event of the actuation speed threshold of the clutch control being exceeded.
A reusable water writing paper, comprising a substrate as a structure-support material, a color-displaying component supported on the substrate, and a performance-enhancing additive, wherein the color-displaying component is an oxazoline-based hydrochromic dye, which changes color to display characters and/or patterns upon contacting with water, and revert to its initial color to erase the displayed characters and/or patterns after the water is removed, thus the water writing paper is reusable, wherein the performance-enhancing additive is one or more selected from polyethylene glycol, polyethylene oxide, polyvinyl alcohol, polyvinyl pyrrolidone, sodium chloride, ammonium chloride, thionyl chloride, polyacrylamide, cyclodextrin, molecular sieve, silica gel and acidified bentonite, and wherein the color-displaying component is one or more selected from: (E)-4-(2-(9,9-dimethyl-2,3,9,9a-tetrahydroxazoline[3,2-a]indole-9a-)vinyl)-N,N-dimethylaniline, (E)-4-(2-(9,9-dimethyl-7-nitro-2,3,9,9a-tetrahydroxazoline[3,2-a]indole-9a-)vinyl)-N,N-dimethylaniline, and (E)-9,9-dimethyl-9a-(4-methoxystyryl)-2,3,9,9a-tetrahydroxazoline[3,2-a]indole. (E)-4-(2-(9,9-dimethyl-2,3,9,9a-tetrahydroxazoline[3,2-a]indole-9a-)vinyl)-N,N-dimethylaniline, (E)-4-(2-(9,9-dimethyl-7-nitro-2,3,9,9a-tetrahydroxazoline[3,2-a]indole-9a-)vinyl)-N,N-dimethylaniline, and (E)-9,9-dimethyl-9a-(4-methoxystyryl)-2,3,9,9a-tetrahydroxazoline[3,2-a]indole.
A power rectification method, wherein the method is applied to a first power consumption system, and the method comprises: obtaining a total input current of each of three phase lines; and when it is determined that a total input current of at least one of the three phase lines is greater than a total input current threshold corresponding to the at least one phase line, adjusting a rectifier connected to the at least one phase line to reduce a total input power of the at least one phase line, so that the total input current of the at least one phase line is less than or equal to the total input current threshold corresponding to the at least one phase line; wherein the first power consumption system further comprises a load and a first battery, and the method further comprises: determining a remaining power supply power of each phase line based on the total input current of the corresponding phase line; and determining a working state of the first battery based on the remaining power supply power of all phase lines and a load power of the load, wherein the working state of the first battery comprises charging the battery by using a current output by the rectifier, or discharging the battery to provide power to the load. obtaining a total input current of each of three phase lines; and when it is determined that a total input current of at least one of the three phase lines is greater than a total input current threshold corresponding to the at least one phase line, adjusting a rectifier connected to the at least one phase line to reduce a total input power of the at least one phase line, so that the total input current of the at least one phase line is less than or equal to the total input current threshold corresponding to the at least one phase line; wherein the first power consumption system further comprises a load and a first battery, and the method further comprises: determining a remaining power supply power of each phase line based on the total input current of the corresponding phase line; and determining a working state of the first battery based on the remaining power supply power of all phase lines and a load power of the load, wherein the working state of the first battery comprises charging the battery by using a current output by the rectifier, or discharging the battery to provide power to the load. determining a remaining power supply power of each phase line based on the total input current of the corresponding phase line; and determining a working state of the first battery based on the remaining power supply power of all phase lines and a load power of the load, wherein the working state of the first battery comprises charging the battery by using a current output by the rectifier, or discharging the battery to provide power to the load.
A data center for utility applications, comprising: a physically secure environment ; at least one server configured to execute one or more application programs associated with operations of a utility, at least some of said application programs having an interface for receiving remote requests from locations outside of the data center to perform functions pertaining to the operations of the utility; and a hardware security module located within said physically secure environment , storing a secret key and comprising an authorization engine , located within said physically secure environment , configured to receive remote requests directed to said application programs and to provide authorized requests, that are signed in accordance with said secret key; and a policy module , located within said physically secure environment , configured to process the remote requests in accordance with business logic associated with said application programs and to selectively enable the requests to be authorized by said authorization engine . a physically secure environment ; at least one server configured to execute one or more application programs associated with operations of a utility, at least some of said application programs having an interface for receiving remote requests from locations outside of the data center to perform functions pertaining to the operations of the utility; and a hardware security module located within said physically secure environment , storing a secret key and comprising an authorization engine , located within said physically secure environment , configured to receive remote requests directed to said application programs and to provide authorized requests, that are signed in accordance with said secret key; and a policy module , located within said physically secure environment , configured to process the remote requests in accordance with business logic associated with said application programs and to selectively enable the requests to be authorized by said authorization engine .
A system for spraying vegetation treatment liquid for a sprayer, the system comprising a support structure as well as a central group (G1) of main spraying devices suspended from the support structure and spaced apart from each other along a transverse direction of the system, the main spraying devices being provided in an even number n greater than or equal to two and being associated in twos so as to form a number n/2 of pairs of devices, each pair transversely delimiting, between its two main spraying devices , a spraying zone and each of the two main spraying devices comprising a first face as well as a second face opposite the first face along the transverse direction, the first face delimiting the spraying zone and being fitted with treatment liquid spraying means as well as treatment liquid recovery means , and the second face being devoid of treatment liquid spraying means, characterised in that the system further comprises, associated with each of the two main spraying devices arranged respectively at the two opposite transverse ends of the central group (G), the so-called end devices , an additional spraying device of a different design from that of the main spraying devices , each additional spraying device comprising a first face as well as a second face opposite the first face along the transverse direction , the first face being fitted with treatment liquid spraying means while the second face is devoid of treatment liquid spraying means, each additional spraying device being arranged movable with respect to its associated end device between: - a first inactive rest position; and - a second operating position in which the additional spraying device is, along the transverse direction , further away from its associated end device than in the first inactive rest position, in which second position the first face of the additional spraying device is oriented transversely towards the outside, so as to form a transverse end outer face of the spraying system . - a first inactive rest position; and - a second operating position in which the additional spraying device is, along the transverse direction , further away from its associated end device than in the first inactive rest position, in which second position the first face of the additional spraying device is oriented transversely towards the outside, so as to form a transverse end outer face of the spraying system .
A coffee machine, comprising a machine body and a carafe comprising a milk container , a filling mouth , and a closing cover of said filling mouth equipped with a milk frother device and removably fixed to said machine body , characterized in that said cover supports a support of said container configured to support a limited reversible movement of said container towards an opening position of said filling mouth for loading the milk without disengaging said cover from said machine body , in that said milk container has an open top defining said filling mouth , and in that along said limited reversible movement said milk container takes an inital position where said cover covers said open top and said opening position where said cover uncovers said open top.