mhurhangee/patent-ind-claim-en huggingface dataset:
A gas turbine engine comprising: a stage of guide vanes; a compressor downstream from the stage of guide vanes; a combustor downstream from the compressor , the combustor comprising: a primary combustion zone ; and a secondary combustion zone downstream from the primary combustion zone , wherein the primary combustion zone comprises an exit that defines a boundary between the primary combustion zone and the secondary combustion zone , wherein the exit is configured to channel combustion gases exiting the primary combustion zone towards the secondary combustion zone ; and a controller communicatively coupled to the stage of guide vanes, the controller configured to: monitor a temperature at the exit of the primary combustion zone ; determine a combustion mode in which the combustor is operating; and selectively open and close the guide vanes to facilitate maintaining the temperature within a predefined temperature range associated with the combustion mode in which the combustor is operating. a stage of guide vanes; a compressor downstream from the stage of guide vanes; a combustor downstream from the compressor , the combustor comprising: a primary combustion zone ; and a secondary combustion zone downstream from the primary combustion zone , wherein the primary combustion zone comprises an exit that defines a boundary between the primary combustion zone and the secondary combustion zone , wherein the exit is configured to channel combustion gases exiting the primary combustion zone towards the secondary combustion zone ; and a controller communicatively coupled to the stage of guide vanes, the controller configured to: monitor a temperature at the exit of the primary combustion zone ; determine a combustion mode in which the combustor is operating; and selectively open and close the guide vanes to facilitate maintaining the temperature within a predefined temperature range associated with the combustion mode in which the combustor is operating. a primary combustion zone ; and a secondary combustion zone downstream from the primary combustion zone , wherein the primary combustion zone comprises an exit that defines a boundary between the primary combustion zone and the secondary combustion zone , wherein the exit is configured to channel combustion gases exiting the primary combustion zone towards the secondary combustion zone ; and a controller communicatively coupled to the stage of guide vanes, the controller configured to: monitor a temperature at the exit of the primary combustion zone ; determine a combustion mode in which the combustor is operating; and selectively open and close the guide vanes to facilitate maintaining the temperature within a predefined temperature range associated with the combustion mode in which the combustor is operating. monitor a temperature at the exit of the primary combustion zone ; determine a combustion mode in which the combustor is operating; and selectively open and close the guide vanes to facilitate maintaining the temperature within a predefined temperature range associated with the combustion mode in which the combustor is operating.
Connecting element for fuel injection systems for connecting a fuel injection valve to a fuel-conducting component , wherein a main body is provided in which there is provided a receiving space for a fuel connector of the fuel injection valve , wherein the fuel connector , which is arrangeable at least partially in the receiving space , is supportable at least indirectly on the main body , wherein the fuel connector is supportable elastically on the main body at least in a radial direction , wherein at least one decoupling element is provided which, in the assembled state, is arranged between the fuel connector and the main body , and in that the fuel connector is supportable elastically on the main body at least in the radial direction via the decoupling element , wherein the main body has a shoulder with a step on which the decoupling element is arranged, wherein, here, the decoupling element annularly surrounds an outer side of the fuel connector , characterized in that the main body , at its end , has the radially inwardly running shoulder with an opening which is configured within the shoulder and which is extended through by the fuel connector , wherein the step is provided on the shoulder in the region of the opening , by means of which step a projection of the shoulder is configured, which projection, in the case of a maximum adjustment movement or vibration amplitude, abuts as a limiting means for the decoupling element against the outer side of the fuel connector .
A method for drying a plurality of specimens carried by a plurality of microscope slides, the method comprising: positioning a slide carrier at a first position while the slide carrier holds the plurality microscope slides, wherein each of the specimens is carried by one of the plurality of microscope slides; robotically moving the slide carrier from the first position to a second position to move the slide carrier into a circulation loop defined by a heater apparatus, wherein the second position is oriented vertically relative to the first position; and convectively heating the specimens and/or microscope slides while the slide carrier is at the second position; characterized by positioning the slide carrier such that, in the second position, a first end of each of the slides is positioned above the second end of each of the slides, wherein the second end is opposite the first end , and wherein the second end is labeled. positioning a slide carrier at a first position while the slide carrier holds the plurality microscope slides, wherein each of the specimens is carried by one of the plurality of microscope slides; robotically moving the slide carrier from the first position to a second position to move the slide carrier into a circulation loop defined by a heater apparatus, wherein the second position is oriented vertically relative to the first position; and convectively heating the specimens and/or microscope slides while the slide carrier is at the second position; characterized by positioning the slide carrier such that, in the second position, a first end of each of the slides is positioned above the second end of each of the slides, wherein the second end is opposite the first end , and wherein the second end is labeled.
A printing device , comprising: a processing resource ; and a memory resource storing machine readable instructions to cause the processing resource to: reconstruct a compressed color table, wherein reconstructing the compressed color table comprises generating a reconstructed color table from printer functional data ,PFD, and seed data, wherein the printer functional data is received from an ink or toner cartridge used with the printing device and; generate a key from the reconstructed table; determine corrective data for the reconstructed table based on the generated key; and implement the corrective data to the reconstructed table to generate an updated table. a processing resource ; and a memory resource storing machine readable instructions to cause the processing resource to: reconstruct a compressed color table, wherein reconstructing the compressed color table comprises generating a reconstructed color table from printer functional data ,PFD, and seed data, wherein the printer functional data is received from an ink or toner cartridge used with the printing device and; generate a key from the reconstructed table; reconstruct a compressed color table, wherein reconstructing the compressed color table comprises generating a reconstructed color table from printer functional data ,PFD, and seed data, wherein the printer functional data is received from an ink or toner cartridge used with the printing device and; generate a key from the reconstructed table; determine corrective data for the reconstructed table based on the generated key; and implement the corrective data to the reconstructed table to generate an updated table.
A tool assembly comprising: an anvil having a proximal portion and a distal portion ; a cartridge assembly having a proximal portion and a distal portion , the proximal portion of the cartridge assembly pivotally coupled to the proximal portion of the anvil; a sled slidably received in the cartridge assembly and configured to move from a proximal position to a distal position to advance staples from the cartridge assembly; and a locking member rotatably supported on the distal portion of the cartridge assembly , characterised in that : the distal portion of the anvil defines a bore therein; and the locking member is positioned for receipt in the bore , wherein the locking member is operably coupled to the sled , such that advancement of the sled from the proximal position toward the distal position rotates the locking member relative to the bore to approximate the distal portions of the anvil and cartridge assembly . an anvil having a proximal portion and a distal portion ; a cartridge assembly having a proximal portion and a distal portion , the proximal portion of the cartridge assembly pivotally coupled to the proximal portion of the anvil; a sled slidably received in the cartridge assembly and configured to move from a proximal position to a distal position to advance staples from the cartridge assembly; and a locking member rotatably supported on the distal portion of the cartridge assembly , the distal portion of the anvil defines a bore therein; and the locking member is positioned for receipt in the bore , wherein the locking member is operably coupled to the sled , such that advancement of the sled from the proximal position toward the distal position rotates the locking member relative to the bore to approximate the distal portions of the anvil and cartridge assembly .
A method of forming a stack of semiconductor layers, the method comprising: depositing a first silicon oxide layer on a substrate; depositing a first silicon layer on the first silicon oxide layer; depositing a first silicon nitride layer on the first silicon layer, wherein depositing the first silicon nitride layer comprises: flowing a gas comprising helium and silane or disilane through a plasma to form plasma effluents, wherein the plasma is sustained with an RF power, and reducing stress in at least one of the first silicon layer, the first silicon oxide layer, or the substrate; and depositing a second silicon layer on the first silicon nitride layer and forming the stack of semiconductor layers comprising the first silicon oxide layer, the first silicon layer, the first silicon nitride layer, and the second silicon layer. depositing a first silicon oxide layer on a substrate; depositing a first silicon layer on the first silicon oxide layer; depositing a first silicon nitride layer on the first silicon layer, wherein depositing the first silicon nitride layer comprises: flowing a gas comprising helium and silane or disilane through a plasma to form plasma effluents, wherein the plasma is sustained with an RF power, and reducing stress in at least one of the first silicon layer, the first silicon oxide layer, or the substrate; and flowing a gas comprising helium and silane or disilane through a plasma to form plasma effluents, wherein the plasma is sustained with an RF power, and reducing stress in at least one of the first silicon layer, the first silicon oxide layer, or the substrate; and depositing a second silicon layer on the first silicon nitride layer and forming the stack of semiconductor layers comprising the first silicon oxide layer, the first silicon layer, the first silicon nitride layer, and the second silicon layer.
A method comprising: receiving, by a processor of a wearable computing device, an indication that the wearable computing device is being worn by a user; changing, by the processor of the wearable computing device, based at least in part on the indication that the wearable computing device is being worn and on an indication that a distance between the wearable computing device and a mobile computing device is less than a threshold distance, an access mode of a computing environment of the wearable computing device from a reduced access mode to an increased access mode in which the user is permitted access to a larger set of functionality provided by the wearable computing device than when in the reduced access mode; and transmitting, by the wearable computing device, to the mobile computing device, a signal configured to cause the mobile computing device to change an access mode of a computing environment of the mobile computing device from a reduced access mode to an increased access mode in which the user is permitted access to a larger set of functionality provided by the mobile computing device than when in the reduced access security mode. receiving, by a processor of a wearable computing device, an indication that the wearable computing device is being worn by a user; changing, by the processor of the wearable computing device, based at least in part on the indication that the wearable computing device is being worn and on an indication that a distance between the wearable computing device and a mobile computing device is less than a threshold distance, an access mode of a computing environment of the wearable computing device from a reduced access mode to an increased access mode in which the user is permitted access to a larger set of functionality provided by the wearable computing device than when in the reduced access mode; and transmitting, by the wearable computing device, to the mobile computing device, a signal configured to cause the mobile computing device to change an access mode of a computing environment of the mobile computing device from a reduced access mode to an increased access mode in which the user is permitted access to a larger set of functionality provided by the mobile computing device than when in the reduced access security mode.
An active noise control system for reducing noise, the active noise control system comprising: a first area microphone that is a microphone disposed in a first area; a second area speaker that is a speaker that outputs sound to a second area; a second area microphone that is a microphone disposed in the second area; a second area sound source device that is a sound source device that is configured to output a sound output from the second area speaker ; a first adder that is configured to add an output of the first area microphone and an output of the second area sound source device ; an echo cancellation adaptive filter that is configured to receive an output of the first adder as an input; a third adder that is configured to subtract an output of the echo cancellation adaptive filter from an output of the second area microphone , the echo cancellation adaptive filter is configured to update a filter coefficient such that an output of the third adder is regarded as an error and the error is minimized, characterized in that the system further comprises a noise cancellation adaptive filter that is configured to receive a noise signal representing noise for a user in the second area as input; a second adder that is configured to output a signal obtained by adding the output of the first area microphone , the output of the second area sound source device , and the output of the noise cancellation adaptive filter to the second area speaker; and the noise cancellation adaptive filter is configured to update a filter coefficient such that the output of the third adder is regarded as an error and the error is minimized. a first area microphone that is a microphone disposed in a first area; a second area speaker that is a speaker that outputs sound to a second area; a second area microphone that is a microphone disposed in the second area; a second area sound source device that is a sound source device that is configured to output a sound output from the second area speaker ; a first adder that is configured to add an output of the first area microphone and an output of the second area sound source device ; an echo cancellation adaptive filter that is configured to receive an output of the first adder as an input; a third adder that is configured to subtract an output of the echo cancellation adaptive filter from an output of the second area microphone , the echo cancellation adaptive filter is configured to update a filter coefficient such that an output of the third adder is regarded as an error and the error is minimized, characterized in that the system further comprises a noise cancellation adaptive filter that is configured to receive a noise signal representing noise for a user in the second area as input; a second adder that is configured to output a signal obtained by adding the output of the first area microphone , the output of the second area sound source device , and the output of the noise cancellation adaptive filter to the second area speaker; and the noise cancellation adaptive filter is configured to update a filter coefficient such that the output of the third adder is regarded as an error and the error is minimized.
A battery pack, comprising: a battery pack housing and a plurality of rectangular cells, the battery pack housing having a first direction and a second direction perpendicular to the first direction; wherein the battery pack has a dimension greater than or equal to 600 mm along the first direction, and at least one rectangular cell accommodating unit is formed in the battery pack housing; the plurality of rectangular cells are arranged in the rectangular cell accommodating unit along the second direction; the rectangular cell extends along the first direction, and one rectangular cell is disposed in each rectangular cell accommodating unit along the first direction; the rectangular cell has a thickness of D, a length of L, and a height of H; the battery pack has a dimension greater than or equal to L along the first direction; and a length direction of at least one rectangular cell extends from one side of the rectangular cell accommodating unit to the other side of the rectangular cell accommodating unit along the first direction, and meets: L > H, L > D, 600 mm ≤ L ≤ 2500 mm, 23 ≤ L/D ≤ 208. the battery pack has a dimension greater than or equal to L along the first direction; and a length direction of at least one rectangular cell extends from one side of the rectangular cell accommodating unit to the other side of the rectangular cell accommodating unit along the first direction, and meets: L > H, L > D, 600 mm ≤ L ≤ 2500 mm, 23 ≤ L/D ≤ 208.
Handling system for slender bodies in a production plant of semi-finished products, comprising at least a cutting station (C) apt to separate slender bodies from a continuous wire, a finishing station (E) of the head ends of said slender bodies , at least a dimensional verification station (F) downstream of said finishing station (E), and a transporting equipment for transporting said slender bodies between each one of said stations, characterized in that at or upstream of said cutting station (C) a marking unit is provided to perform a reference marking on said slender bodies which identifies an original attitude comprising at least an angular position of said slender bodies with respect to the continuous wire from which they were separated, said transporting equipment for transporting said slender bodies between each one of said stations, comprises a gripping and locking assembly for said slender bodies , apt to lock at least said angular position of said reference mark with respect to a relative reference system of said transporting equipment, and in that upstream of said finishing station (E), wherein said reference marking is eliminated, it is provided a data detecting and storing unit apt to detect and store data of at least said angular position of said reference mark with respect to said relative reference system, and means for determining said original attitude, comprising at least an angular position of said slender bodies, on the basis of said data, are also provided at least in said dimensional verification station (F). at or upstream of said cutting station (C) a marking unit is provided to perform a reference marking on said slender bodies which identifies an original attitude comprising at least an angular position of said slender bodies with respect to the continuous wire from which they were separated, said transporting equipment for transporting said slender bodies between each one of said stations, comprises a gripping and locking assembly for said slender bodies , apt to lock at least said angular position of said reference mark with respect to a relative reference system of said transporting equipment, and in that upstream of said finishing station (E), wherein said reference marking is eliminated, it is provided a data detecting and storing unit apt to detect and store data of at least said angular position of said reference mark with respect to said relative reference system, and means for determining said original attitude, comprising at least an angular position of said slender bodies, on the basis of said data, are also provided at least in said dimensional verification station (F).
An interlock system comprising: a first lock including a first lock memory configured to store one or more virtual keys; and a first key including a first key memory configured to store one or more virtual keys, the first lock including a first lock whitelist and the first key including a first key whitelist ; wherein the first lock is configured to be actuated between a first condition and a second condition, when a first virtual key (K1) stored in the first key memory is transferred to the first lock memory by a copy operation in which the virtual key is stored in both the first key memory and the first lock memory , once the copy operation is complete, the copy operation further including that each of the first lock whitelist and the first key whitelist includes a parameter that indicates whether a particular virtual key is checked-in or checked-out and wherein a checked-out virtual key cannot be re-checked-out, such that the first virtual key (K1) is checked-out from the first key and consequentially is checked-in to the first lock , the first lock being configured to be actuated by engagement of the first key and first lock , and movement of the first key with respect to the first lock . a first lock including a first lock memory configured to store one or more virtual keys; and a first key including a first key memory configured to store one or more virtual keys, the first lock including a first lock whitelist and the first key including a first key whitelist ; wherein the first lock is configured to be actuated between a first condition and a second condition, when a first virtual key (K1) stored in the first key memory is transferred to the first lock memory by a copy operation in which the virtual key is stored in both the first key memory and the first lock memory , once the copy operation is complete, the copy operation further including that each of the first lock whitelist and the first key whitelist includes a parameter that indicates whether a particular virtual key is checked-in or checked-out and wherein a checked-out virtual key cannot be re-checked-out, such that the first virtual key (K1) is checked-out from the first key and consequentially is checked-in to the first lock , the first lock being configured to be actuated by engagement of the first key and first lock , and movement of the first key with respect to the first lock .