mhurhangee/patent-ind-claim-en huggingface dataset:
An air conditioning control device comprising: an acquisition unit for acquiring air conditioning data acquired by an air conditioner , and a start time of the air conditioner predicted by inputting the air conditioning data into a machine learning model; characterized by the air conditioning control device further comprising: an augmentation unit for generating augmented data by referring to the air conditioning data and the start time acquired by the acquisition unit; and an update unit for updating the machine learning model, by referring to the air conditioning data and the start time acquired by the acquisition unit as well as the augmented data generated by the augmentation unit, wherein the augmentation unit refers to air conditioning data for a period from the start time to a time when an environmental value of a room equipped with the air conditioner reaches a target value, treats a certain time within the period as a virtual start time, and treats the air conditioning data at the certain time as the air conditioning data at the virtual start time, thereby generating augmented data of the air conditioning data corresponding to the start time. an augmentation unit for generating augmented data by referring to the air conditioning data and the start time acquired by the acquisition unit; and an update unit for updating the machine learning model, by referring to the air conditioning data and the start time acquired by the acquisition unit as well as the augmented data generated by the augmentation unit, wherein the augmentation unit refers to air conditioning data for a period from the start time to a time when an environmental value of a room equipped with the air conditioner reaches a target value, treats a certain time within the period as a virtual start time, and treats the air conditioning data at the certain time as the air conditioning data at the virtual start time, thereby generating augmented data of the air conditioning data corresponding to the start time.
A method of firing a furnace by burning fuel, comprising: - providing a supply of fuel to the furnace , wherein part of the fuel supplied to the furnace and burnt in the furnace is produced from waste plastics by a depolymerisation process, waste heat from the furnace being used to promote the depolymerisation process, characterised in that - the waste plastics is fed as a loose material, - the depolymerisation process is carried out under an inert atmosphere, - the furnace is equipped with regenerators for waste heat recovery, - firing the furnace alternately in first and second opposed directions, with the direction of firing periodically reversing between the first direction and the second direction, - temporarily interrupting the supply of fuel to the furnace while the direction of firing is reversing, means being provided to accommodate the fuel produced during the temporary interruption. - providing a supply of fuel to the furnace , wherein part of the fuel supplied to the furnace and burnt in the furnace is produced from waste plastics by a depolymerisation process, waste heat from the furnace being used to promote the depolymerisation process, - the waste plastics is fed as a loose material, - the depolymerisation process is carried out under an inert atmosphere, - the furnace is equipped with regenerators for waste heat recovery, - firing the furnace alternately in first and second opposed directions, with the direction of firing periodically reversing between the first direction and the second direction, - temporarily interrupting the supply of fuel to the furnace while the direction of firing is reversing, means being provided to accommodate the fuel produced during the temporary interruption.
A system for removing suspended particles from a liquid, the system comprising: a filter chamber defining an internal chamber; a deck positioned within the internal chamber and dividing the filter chamber into an upper chamber and a lower chamber, the deck having a plurality of holes formed therein, each hole adapted to receive a filtration cartridge therein; an inlet line for communicating an influent liquid to the filter chamber ; a ridge positioned and forming a perimeter on a top surface of the deck , wherein the ridge acts as an outlet weir on the top surface of the deck ; at least one filtration cartridge positioned in a hole of the deck within the perimeter so that liquid that moves upward through the filtration cartridge for filtration exits the filter chamber by passing over the ridge to reach an outlet of the filter chamber ; wherein the system is characterized in that at least one filtration cartridge is positioned in a hole of the deck outside the perimeter, such that when flow into the filter chamber subsides, this causes liquid that has accumulated above the deck behind the ridge to flow backward through and to backwash the filtration cartridge within the perimeter, to enter the lower chamber and to flow upward through the filtration cartridge located outside the perimeter. a filter chamber defining an internal chamber; a deck positioned within the internal chamber and dividing the filter chamber into an upper chamber and a lower chamber, the deck having a plurality of holes formed therein, each hole adapted to receive a filtration cartridge therein; an inlet line for communicating an influent liquid to the filter chamber ; a ridge positioned and forming a perimeter on a top surface of the deck , wherein the ridge acts as an outlet weir on the top surface of the deck ; at least one filtration cartridge positioned in a hole of the deck within the perimeter so that liquid that moves upward through the filtration cartridge for filtration exits the filter chamber by passing over the ridge to reach an outlet of the filter chamber ; wherein the system is characterized in that at least one filtration cartridge is positioned in a hole of the deck outside the perimeter, such that when flow into the filter chamber subsides, this causes liquid that has accumulated above the deck behind the ridge to flow backward through and to backwash the filtration cartridge within the perimeter, to enter the lower chamber and to flow upward through the filtration cartridge located outside the perimeter.
A method comprising: receiving , by a system including a processor , observed seismic survey data, the observed seismic survey data comprising primaries and free-surface multiples; generating , by the system, synthetic seismic survey data using a wave propagator based on a current model of a target structure, wherein the model contains a velocity component and at least one other component; modifying , by the system, the current model to reduce a difference between the synthetic seismic survey data and the observed seismic survey data, while maintaining unchanged a velocity component of the current model, wherein the modifying of the current model produces a modified model of the target structure; and using , by the system, the modified model to reduce an effect of the multiples in the target structure. receiving , by a system including a processor , observed seismic survey data, the observed seismic survey data comprising primaries and free-surface multiples; generating , by the system, synthetic seismic survey data using a wave propagator based on a current model of a target structure, wherein the model contains a velocity component and at least one other component; modifying , by the system, the current model to reduce a difference between the synthetic seismic survey data and the observed seismic survey data, while maintaining unchanged a velocity component of the current model, wherein the modifying of the current model produces a modified model of the target structure; and using , by the system, the modified model to reduce an effect of the multiples in the target structure.
A method implemented in a wireless transmit/receive unit, WTRU, the method comprising: receiving first information indicating (i) one or more scheduling request, SR, resources and (ii) a set of wake-up request occasions, wherein each SR resource is associated with one or more levels of availability; determining that the WTRU is at a first level of availability; transmitting a first wake-up request using a first wake-up request occasion of the set of wake-up request occasions, wherein the first wake-up request is transmitted based on a determination that a SR is to be transmitted using a SR resource associated with a second level of availability of the one or more levels of availability; transmitting the SR in the SR resource associated with the second level of availability; and on condition that a time period after a transmission of the first wake-up request ends without receiving an availability level indication, transmitting a second wake-up request using a second wake-up request occasion of the set of wake-up request occasions, wherein the first wake-up request is transmitted with a first transmit power and the second wake-up request is transmitted with a second transmit power that is higher than the first transmit power. receiving first information indicating (i) one or more scheduling request, SR, resources and (ii) a set of wake-up request occasions, wherein each SR resource is associated with one or more levels of availability; determining that the WTRU is at a first level of availability; transmitting a first wake-up request using a first wake-up request occasion of the set of wake-up request occasions, wherein the first wake-up request is transmitted based on a determination that a SR is to be transmitted using a SR resource associated with a second level of availability of the one or more levels of availability; transmitting the SR in the SR resource associated with the second level of availability; and on condition that a time period after a transmission of the first wake-up request ends without receiving an availability level indication, transmitting a second wake-up request using a second wake-up request occasion of the set of wake-up request occasions, wherein the first wake-up request is transmitted with a first transmit power and the second wake-up request is transmitted with a second transmit power that is higher than the first transmit power.
A method for decoding an encoded audio signal , wherein the encoded audio signal comprises a sequence of frames comprising encoded audio data and metadata, the metadata including a plurality of different sets of dynamic range control, referred to as DRC, gains, wherein the encoded audio signal further comprises an indication of a loudness level of the audio signal, wherein the metadata indicates a plurality of DRC profiles for the encoded audio signal, wherein each DRC profile comprises definition data defining a range of output reference levels for which the DRC profile is applicable, and wherein each set of DRC gains corresponds to one of the plurality of DRC profiles, the method comprising setting a desired output reference level; the method being characterised by further comprising: selecting a specific DRC profile for which the applicable range of output reference levels includes the desired output reference level; extracting audio data and metadata from the encoded audio signal; extracting from the metadata, and applying, the DRC gains corresponding to the selected specific DRC profile to the extracted audio data to adjust the dynamic range of the extracted audio data thereby obtaining dynamic range adjusted audio data, wherein the DRC gains corresponding to the selected specific DRC profile are temporally equidistant; determining a loudness related gain based on the indication of the loudness level of the audio signal and the desired output reference level to cause a change from the loudness level of the audio data to the desired output reference level; applying the loudness related gain to the dynamic range adjusted audio data to obtain loudness adjusted audio data that has the desired output reference level; and generating output audio data elements from the loudness adjusted audio data. selecting a specific DRC profile for which the applicable range of output reference levels includes the desired output reference level; extracting audio data and metadata from the encoded audio signal; extracting from the metadata, and applying, the DRC gains corresponding to the selected specific DRC profile to the extracted audio data to adjust the dynamic range of the extracted audio data thereby obtaining dynamic range adjusted audio data, wherein the DRC gains corresponding to the selected specific DRC profile are temporally equidistant; determining a loudness related gain based on the indication of the loudness level of the audio signal and the desired output reference level to cause a change from the loudness level of the audio data to the desired output reference level; applying the loudness related gain to the dynamic range adjusted audio data to obtain loudness adjusted audio data that has the desired output reference level; and generating output audio data elements from the loudness adjusted audio data.
A method, comprising: performing by one or more computing nodes, each of which comprises at least one processor core and a memory: beginning execution of a multithreaded application that comprises one or more operations to increment a shared counter, wherein the shared counter is implemented as a data structure that is accessible by a plurality of threads of the multithreaded application; initiating, by a given thread of the application, an increment operation targeting the shared counter ; in response to said initiating, selecting, from a plurality of techniques, a technique for determining whether or when to update the data structure and a technique for updating the data structure, said selection being dependent on current and historical amounts of contention for the shared counter; in response to said initiating, determining whether or when to update the data structure according to the selected technique for determining; and in response to determining that the data structure is to be updated, updating a value stored in the data structure according to the selected technique for updating; wherein said selecting one of a plurality of techniques for performing said determining or said updating is dependent on whether a retry limit condition has been met by a previous attempt to increment the shared counter or will be met by said updating; or whether there have already been more than a pre-determined maximum number of failed attempts. beginning execution of a multithreaded application that comprises one or more operations to increment a shared counter, wherein the shared counter is implemented as a data structure that is accessible by a plurality of threads of the multithreaded application; initiating, by a given thread of the application, an increment operation targeting the shared counter ; in response to said initiating, selecting, from a plurality of techniques, a technique for determining whether or when to update the data structure and a technique for updating the data structure, said selection being dependent on current and historical amounts of contention for the shared counter; in response to said initiating, determining whether or when to update the data structure according to the selected technique for determining; and in response to determining that the data structure is to be updated, updating a value stored in the data structure according to the selected technique for updating; wherein said selecting one of a plurality of techniques for performing said determining or said updating is dependent on whether a retry limit condition has been met by a previous attempt to increment the shared counter or will be met by said updating; or whether there have already been more than a pre-determined maximum number of failed attempts. whether a retry limit condition has been met by a previous attempt to increment the shared counter or will be met by said updating; or whether there have already been more than a pre-determined maximum number of failed attempts.
Rotor for a reluctance machine , having: - a rotor body which is substantially disc-shaped around a rotor axis running through a rotor centre point , and - a sequence of barrier regions and pole regions alternating in the circumferential direction of the rotor body , - wherein each barrier region has at least three magnetic flux barriers which are spatially and materially separate and do not overlap, - within at least one barrier region , at least one magnetic flux barrier is arranged with a q axis and/or figure axis rotated about the rotor axis with respect to a q axis and/or figure axis of another magnetic flux barrier of the same barrier region , and - in which a plurality of magnetic flux barriers of the same barrier region are arranged with their q axes and/or figure axes rotated about the rotor axis with respect to a q axis and/or figure axis of another magnetic flux barrier of the same barrier region , wherein - the rotational angles have the same value or different values, characterized in that the direction of rotation of the magnetic flux barriers of a barrier region , based on an inner magnetic flux barrier arranged in the radial direction of the rotor , is different. - a rotor body which is substantially disc-shaped around a rotor axis running through a rotor centre point , and - a sequence of barrier regions and pole regions alternating in the circumferential direction of the rotor body , - wherein each barrier region has at least three magnetic flux barriers which are spatially and materially separate and do not overlap, - within at least one barrier region , at least one magnetic flux barrier is arranged with a q axis and/or figure axis rotated about the rotor axis with respect to a q axis and/or figure axis of another magnetic flux barrier of the same barrier region , and - in which a plurality of magnetic flux barriers of the same barrier region are arranged with their q axes and/or figure axes rotated about the rotor axis with respect to a q axis and/or figure axis of another magnetic flux barrier of the same barrier region , wherein - the rotational angles have the same value or different values, characterized in that the direction of rotation of the magnetic flux barriers of a barrier region , based on an inner magnetic flux barrier arranged in the radial direction of the rotor , is different.
A drive arrangement configured to drive a rotating component selectively rotationally about an axis of rotation and/or laterally relative to the axis of rotation, which drive arrangement consists of a plurality of rotating components, the drive arrangement including a first gear train which includes a first input gear , to which a first electric motor is drivingly connected, the first input gear being rotatable about a primary axis of rotation , a first output gear which is a ring gear and a first intermediate gear which is connected to the first output gear and to which the first input gear is drivingly connected, a second gear train which includes a second input gear , to which a second electric motor is drivingly connected, a second output gear and a second intermediate gear pair whereby the second input gear is drivingly connected to the second output gear , the second output gear being in engagement with the first output gear , and a third gear train which includes a third input gear , to which a third electric motor is drivingly connected, and a third output gear to which the third input gear is drivingly connected, the third output gear being a ring gear which is rotatable about the primary axis of rotation and with which the first intermediate gear of the first gear train is drivingly engaged, characterized in that the second input gear being rotatable about the primary axis of rotation , the third input gear being rotatable about the primary axis of rotation , and the second intermediate gear pair including a connecting shaft to which a first intermediate gear and a second intermediate gear are mounted, the first intermediate gear being in driving engagement with the second input gear and the second intermediate gear being in driving engagement with the second output gear , the first intermediate gear of the first gear train and the connecting shaft of the second gear train being rotatable about a second axis of rotation which is parallel with and laterally spaced from the primary axis of rotation , the second output gear of the second gear train forming or being connected to the rotating component.
A fiber placement system comprising: a compaction roller rotatable about an axis of rotation (A), said compaction roller at least partially defining a compaction nip region ; and a laser heating assembly comprising: a laser that emits a beam of electromagnetic radiation; a scan head defining a scan field , said scan field being aligned with said compaction nip region , wherein said scan head scans said beam within said scan field ; and a controller ; wherein said scan head scans said beam in a scan row extending across said scan field , wherein said beam has an optical power which is controlled such that the amount of heating from scan row to scan row is varied. a compaction roller rotatable about an axis of rotation (A), said compaction roller at least partially defining a compaction nip region ; and a laser heating assembly comprising: a laser that emits a beam of electromagnetic radiation; a scan head defining a scan field , said scan field being aligned with said compaction nip region , wherein said scan head scans said beam within said scan field ; and a controller ; a laser that emits a beam of electromagnetic radiation; a scan head defining a scan field , said scan field being aligned with said compaction nip region , wherein said scan head scans said beam within said scan field ; and a controller ; wherein said scan head scans said beam in a scan row extending across said scan field , wherein said beam has an optical power which is controlled such that the amount of heating from scan row to scan row is varied.
Foundation for a wind turbine, wherein the foundation has substantially prefabricated elements, preferably composed of reinforced concrete, having a first, vertically extending pedestal-like section , on which a tower of the wind turbine is able to be arranged, having a second, substantially horizontally extending section as a foundation body, which is in contact with the ground and has at least two horizontal elements with at least one bearing section at the inner end thereof, wherein the first section is arranged above the at least two bearing sections of the second section , and having a third section , which is arranged below the at least two bearing sections of the second section , characterized in that provision is made of a pedestal which is formed at least from the first, vertically extending pedestal-like section , from the at least two bearing sections of the second section and from the third, vertically extending pedestal-like section , in that the three sections form at least three tiers which are arranged one above the other and of which the upper and lower tiers are formed from at least two ring-like layers and the middle tier is formed from at least one ring-like layer , in that the height (H+I, 2x J) of the upper and/or lower tier is smaller than the height (K) of the middle tier , and in that the tiers are vertically braced with the second section by means of at least two vertical clamping members .