mhurhangee/patent-ind-claim-en huggingface dataset:
A method for forming a three-dimensional memory device, comprising: forming an array wafer including a periphery region and a staircase and array region , comprising: forming an alternating dielectric etch stop structure on a first substrate in the periphery region , wherein the alternating dielectric etch stop structure comprises at least two dielectric layer pairs each including a first dielectric layer and a second dielectric layer different from the first dielectric layer ; forming an array device on the first substrate in the staircase and array region , and forming at least one first vertical through contact in the periphery region and in contact with the alternating dielectric etch stop structure ; forming a CMOS wafer ; bonding the array wafer and the CMOS wafer ; and forming at least one through substrate contact penetrating the first substrate and the alternating dielectric etch stop structure , and in contact with the at least one first vertical through contact , wherein forming the array wafer further comprises: forming an array well structure in the first substrate in the periphery region ; and forming at least one second vertical through contact in contact with the array well structure . forming an array wafer including a periphery region and a staircase and array region , comprising: forming an alternating dielectric etch stop structure on a first substrate in the periphery region , wherein the alternating dielectric etch stop structure comprises at least two dielectric layer pairs each including a first dielectric layer and a second dielectric layer different from the first dielectric layer ; forming an array device on the first substrate in the staircase and array region , and forming at least one first vertical through contact in the periphery region and in contact with the alternating dielectric etch stop structure ; forming an alternating dielectric etch stop structure on a first substrate in the periphery region , wherein the alternating dielectric etch stop structure comprises at least two dielectric layer pairs each including a first dielectric layer and a second dielectric layer different from the first dielectric layer ; forming an array device on the first substrate in the staircase and array region , and forming at least one first vertical through contact in the periphery region and in contact with the alternating dielectric etch stop structure ; forming a CMOS wafer ; bonding the array wafer and the CMOS wafer ; and forming at least one through substrate contact penetrating the first substrate and the alternating dielectric etch stop structure , and in contact with the at least one first vertical through contact , wherein forming the array wafer further comprises: forming an array well structure in the first substrate in the periphery region ; and forming at least one second vertical through contact in contact with the array well structure . forming an array well structure in the first substrate in the periphery region ; and forming at least one second vertical through contact in contact with the array well structure .
A method for producing a radiation-sensitive resin composition comprising: a step 1 of putting at least a resin having a polarity that increases by an action of an acid, a photoacid generator, and a solvent into a stirring tank; and a step 2 of producing a radiation-sensitive resin composition by stirring and mixing the resin having a polarity that increases by the action of an acid, the photoacid generator, and the solvent in the stirring tank under a gas having an inert gas concentration of 90% by volume or more, wherein in the step 2, an atmospheric pressure inside the stirring tank is higher than an atmospheric pressure outside the stirring tank, and in the step 2, a difference between the atmospheric pressure inside the stirring tank and the atmospheric pressure outside the stirring tank is 2.0 kPa or less. a step 1 of putting at least a resin having a polarity that increases by an action of an acid, a photoacid generator, and a solvent into a stirring tank; and a step 2 of producing a radiation-sensitive resin composition by stirring and mixing the resin having a polarity that increases by the action of an acid, the photoacid generator, and the solvent in the stirring tank under a gas having an inert gas concentration of 90% by volume or more, wherein in the step 2, an atmospheric pressure inside the stirring tank is higher than an atmospheric pressure outside the stirring tank, and in the step 2, a difference between the atmospheric pressure inside the stirring tank and the atmospheric pressure outside the stirring tank is 2.0 kPa or less.
A device for the creating of supports, formworks, or structures made of foamed plastic, designed to be placed on a controlled manipulator, having means for the supplying of plastic, especially plastic in the form of pellets, such as a storage container, or means for pneumatic transport, a screw extruder sleeve, especially a heated one, an extruder screw, a blowing agent feeding assembly, and preferably an outlet nozzle located at the end of the extruder sleeve, wherein the blowing agent feeding assembly includes a compressor, possibly with a buffer tank, a pump, or means adapted to the supplying of the blowing agent from outside the device, where this assembly is adapted to the supplying of the blowing agent as compressed gas, liquid, or supercritical liquid, where the device is configured so that, under normal use, in the extruder sleeve the blowing agent is mixed with the plastic, and at the extruder outlet the blowing agent expands and the physical foaming of the plastic occurs, wherein the device further includes an outlet nozzle placed at the end of the extruder sleeve characterized in that it further includes a return channel whose one end connects with the extruder sleeve at a place before the outlet nozzle , as well as an extruder nozzle closing element.
Cross member for a bumper beam for an automotive vehicle comprising: - an outer beam extending along a transverse direction with a main beam portion comprising an upper beam wall , a lower beam wall and a front beam wall connecting the upper beam wall and the lower beam wall , said upper beam wall , lower beam wall and front beam wall defining together a beam inner volume open in a back direction opposite to the front beam wall , - a reinforcement element defining a reinforced area of the outer beam , located inside a part of said beam inner volume and having a cross section, defining a reinforcement inner volume open in the back direction, - a closing plate closing at least a part of the beam inner volume , wherein the cross section of the reinforcement element has a shape which is not matching the shape of the outer beam in the reinforced area characterized in that the reinforcement element has a M shaped cross-section opened towards the back direction and comprises at least an upper reinforcement wall linked to a first intermediate reinforcement wall by an upper joining wall , said first intermediate reinforcement wall being joined to a second intermediate reinforcement wall by a central joining wall and said second intermediate reinforcement wall being linked to a lower reinforcement wall by a lower joining wall , said upper and lower joining walls and facing the front beam wall of the outer beam and said central joining wall facing the open side of the outer beam . - an outer beam extending along a transverse direction with a main beam portion comprising an upper beam wall , a lower beam wall and a front beam wall connecting the upper beam wall and the lower beam wall , said upper beam wall , lower beam wall and front beam wall defining together a beam inner volume open in a back direction opposite to the front beam wall , - a reinforcement element defining a reinforced area of the outer beam , located inside a part of said beam inner volume and having a cross section, defining a reinforcement inner volume open in the back direction, - a closing plate closing at least a part of the beam inner volume , wherein the cross section of the reinforcement element has a shape which is not matching the shape of the outer beam in the reinforced area characterized in that the reinforcement element has a M shaped cross-section opened towards the back direction and comprises at least an upper reinforcement wall linked to a first intermediate reinforcement wall by an upper joining wall , said first intermediate reinforcement wall being joined to a second intermediate reinforcement wall by a central joining wall and said second intermediate reinforcement wall being linked to a lower reinforcement wall by a lower joining wall , said upper and lower joining walls and facing the front beam wall of the outer beam and said central joining wall facing the open side of the outer beam .
A method for compaction in a key-value store KV-Store system, comprising: receiving a GET operation that carries a key to be searched for; and determining, after a latest value that corresponds to the key to be searched for is obtained according to the GET operation, a sorted string table, SSTable, in which a key-value pair that corresponds to the key to be searched for and comprises a non-latest value, which is recorded at least once and is not the last recorded value, is located, and recording, in a to-be-deleted log, Delete Log, that corresponds to the determined SSTable, the key to be searched for, Compacting(S301), according to the Delete Log, the determined SSTable, to generate a new SSTable by initiating the new SSTable and adding, to the new SSTable, each key-value pair that is in the to-be-compacted SSTable and whose key does not equal a key belonging to the Delete Log, wherein the new SSTable does not include said key-value pair that corresponds to the key in Delete Log; and Deleting(S302) the determined SSTable. receiving a GET operation that carries a key to be searched for; and determining, after a latest value that corresponds to the key to be searched for is obtained according to the GET operation, a sorted string table, SSTable, in which a key-value pair that corresponds to the key to be searched for and comprises a non-latest value, which is recorded at least once and is not the last recorded value, is located, and recording, in a to-be-deleted log, Delete Log, that corresponds to the determined SSTable, the key to be searched for, Compacting(S301), according to the Delete Log, the determined SSTable, to generate a new SSTable by initiating the new SSTable and adding, to the new SSTable, each key-value pair that is in the to-be-compacted SSTable and whose key does not equal a key belonging to the Delete Log, wherein the new SSTable does not include said key-value pair that corresponds to the key in Delete Log; and Deleting(S302) the determined SSTable.
A method for limiting the amount of torque biased to a first wheel of a vehicle, the first wheel being located on a road surface at a location with a friction coefficient (μ) being higher than a friction coefficient of the road surface at a location of a second wheel of the vehicle, the method comprising: collecting wheel speed data and clutch torque data; processing clutch torque data to determine an electronic limited slip differential clutch torque limit; processing wheel speed data to generate slip data of the first wheel; comparing the generated slip data to threshold slip data; and when the generated slip data is greater than the threshold slip data, reducing the electronic limited slip differential clutch torque limit by a predetermined ratio. collecting wheel speed data and clutch torque data; processing clutch torque data to determine an electronic limited slip differential clutch torque limit; processing wheel speed data to generate slip data of the first wheel; comparing the generated slip data to threshold slip data; and when the generated slip data is greater than the threshold slip data, reducing the electronic limited slip differential clutch torque limit by a predetermined ratio.
An image processing apparatus for creating a tomographic image after noise removal processing based on list data collected by a radiation tomography apparatus , the apparatus comprising: a first image creation unit for dividing the list data into a plurality of frames in a collection order, and performing reconstruction processing for each of the plurality of frames using a data group in the list data included in the frame to create a first tomographic image (D 1 -D M ) of the frame; a second image creation unit for performing reconstruction processing using a data group in the list data having a data amount larger than that of the data group used in creating the first tomographic image of each frame in the first image creation unit to create a second tomographic image (S m ); and a CNN processing unit for generating a plurality of output tomographic images (O m,1 to O m,N ) by, for each of the plurality of frames, repeatedly inputting the second tomographic image (S m ) to a convolutional neural network, outputting an output tomographic image (O m,n ) from the convolutional neural network, and training the convolutional neural network based on a comparison between the output tomographic image (O m,n ) and the first tomographic image of said frame (D 1 -D M ). a first image creation unit for dividing the list data into a plurality of frames in a collection order, and performing reconstruction processing for each of the plurality of frames using a data group in the list data included in the frame to create a first tomographic image (D 1 -D M ) of the frame; a second image creation unit for performing reconstruction processing using a data group in the list data having a data amount larger than that of the data group used in creating the first tomographic image of each frame in the first image creation unit to create a second tomographic image (S m ); and a CNN processing unit for generating a plurality of output tomographic images (O m,1 to O m,N ) by, for each of the plurality of frames, repeatedly inputting the second tomographic image (S m ) to a convolutional neural network, outputting an output tomographic image (O m,n ) from the convolutional neural network, and training the convolutional neural network based on a comparison between the output tomographic image (O m,n ) and the first tomographic image of said frame (D 1 -D M ).
A self-propelled earth working machine comprising - a machine frame , - a traveling gear supporting the machine frame , the traveling gear comprising at least two drive units rollable on a contact subsurface (U) of the earth working machine , - a working apparatus , which is designed for working a subsoil, - a driving force machine for providing driving force for the earth working machine , - an operator platform situated on the machine frame at an elevation level above the contact subsurface (U) for operating the earth working machine , and - a climbing device situated between the contact subsurface (U) and the operator platform , which has a plurality of step treads , which are situated in succession along a virtual climbing axis (SA) extending between the contact subsurface (U) and the elevation level of the operator platform and enclosing an angle together with the contact subsurface (U), the climbing device being variable in length along the climbing axis (SA) and for this purpose at least one of the step treads being adjustable relative to at least one other of the step treads with the aid of an adjustment actuator (76; 76'). characterized in that the climbing device is adjustable into at least three different operating positions climb-ready for a climbing movement of a machine operator between the operator platform and the contact subsurface (U), it being the case that for each step tread pair (54/56, 56/58, 58/60) formed by two of at least three step treads situated in succession along the climbing axis (SA) that the distance between the step treads of the respective step tread pair (54/56, 56/58, 58/60) is of a different magnitude in different operating positions. - a machine frame , - a traveling gear supporting the machine frame , the traveling gear comprising at least two drive units rollable on a contact subsurface (U) of the earth working machine , - a working apparatus , which is designed for working a subsoil, - a driving force machine for providing driving force for the earth working machine , - an operator platform situated on the machine frame at an elevation level above the contact subsurface (U) for operating the earth working machine , and - a climbing device situated between the contact subsurface (U) and the operator platform , which has a plurality of step treads , which are situated in succession along a virtual climbing axis (SA) extending between the contact subsurface (U) and the elevation level of the operator platform and enclosing an angle together with the contact subsurface (U),
A composition , comprising: a CoNiCrAlY alloy, wherein three or more elements of the CoNiCrAlY alloy are present in equimolar amounts, one of the three or more elements of the CoNiCrAlY alloy being aluminum (Al), and wherein a molar fraction of Al is between 0.20 and 0.25; a transition metal boride including at least one of: cobalt boride,Co 2 B, titanium boride, TiB 2 , zirconium boride, ZrB 2 , tantalum boride, TaB 2 , niobium boride, NiB 2 , or molybdenum boride, Mo 2 B; and a refractory alloy , wherein the refractory alloy includes molybdenum niobium or M-Mo-Cr-Si, where M includes Ni or Co; and wherein when the refractory alloy includes molybdenum niobium, MoNb, the composition includes, based on the total weight of the composition, between 10% and 70% by weight the CoNiCrAlY alloy, between 20% and 60% by weight the transition metal boride, and between 0.5% and 10% by weigh MoNb; or wherein when the refractory alloy includes M-Mo-Cr-Si, where M includes Ni or Co, the composition includes, based on the total weight of the composition, between 30% and 70% by weight the CoNiCrAlY alloy, between 20% and 40% by weight the transition metal boride, and between 20% and 60% by weight the refractory alloy. a CoNiCrAlY alloy, wherein three or more elements of the CoNiCrAlY alloy are present in equimolar amounts, one of the three or more elements of the CoNiCrAlY alloy being aluminum (Al), and wherein a molar fraction of Al is between 0.20 and 0.25; a transition metal boride including at least one of: cobalt boride,Co 2 B, titanium boride, TiB 2 , zirconium boride, ZrB 2 , tantalum boride, TaB 2 , niobium boride, NiB 2 , or molybdenum boride, Mo 2 B; and a refractory alloy , wherein the refractory alloy includes molybdenum niobium or M-Mo-Cr-Si, where M includes Ni or Co; and wherein when the refractory alloy includes molybdenum niobium, MoNb, the composition includes, based on the total weight of the composition, between 10% and 70% by weight the CoNiCrAlY alloy, between 20% and 60% by weight the transition metal boride, and between 0.5% and 10% by weigh MoNb; or wherein when the refractory alloy includes M-Mo-Cr-Si, where M includes Ni or Co, the composition includes, based on the total weight of the composition, between 30% and 70% by weight the CoNiCrAlY alloy, between 20% and 40% by weight the transition metal boride, and between 20% and 60% by weight the refractory alloy.
Smart portable object comprising an electronic circuit, a safety component soldered or connected to the electronic circuit, a screen , said object being configured to perform an electronic transaction with a remote unit via the screen, said transaction comprising a bidirectional exchange of data/information between the object and the remote unit, said security component being configured to receive, decode or interpret or secure all or part of said data/information, characterised in that said screen is a touch screen or a touch-sensitive screen, said security component is configured to receive or decode or interpret or secure all or part of said data/information during said transaction, said information/data being entered directly on said touch screen or touch-sensitive screen. said object being configured to perform an electronic transaction with a remote unit via the screen, said transaction comprising a bidirectional exchange of data/information between the object and the remote unit, said security component being configured to receive, decode or interpret or secure all or part of said data/information, characterised in that said screen is a touch screen or a touch-sensitive screen, said security component is configured to receive or decode or interpret or secure all or part of said data/information during said transaction, said information/data being entered directly on said touch screen or touch-sensitive screen.
A method for controlling energy resources available to different micro-grids of an area, each micro-grid including a respective tracking network that collects mobility data using sensors that are connected throughout the respective micro-grid, comprising: collecting, by a mobility pattern estimator that is in communication with a tracking network of a micro-grid, mobility data of persons in the micro-grid of the area; predicting, by the mobility pattern estimator , a mobility pattern of a population of people in the micro-grid using the collected mobility data;; estimating, by an energy management system , an energy requirement for the micro-grid using the predicted mobility pattern; selecting, by an analytical system , an energy resource suitable for satisfying the energy requirement of the micro-grid during a time corresponding to the predicted mobility pattern; and powering, by the energy management system , using the selected energy resource the micro-grid during the time corresponding to the predicted mobility pattern. collecting, by a mobility pattern estimator that is in communication with a tracking network of a micro-grid, mobility data of persons in the micro-grid of the area; predicting, by the mobility pattern estimator , a mobility pattern of a population of people in the micro-grid using the collected mobility data;; estimating, by an energy management system , an energy requirement for the micro-grid using the predicted mobility pattern; selecting, by an analytical system , an energy resource suitable for satisfying the energy requirement of the micro-grid during a time corresponding to the predicted mobility pattern; and powering, by the energy management system , using the selected energy resource the micro-grid during the time corresponding to the predicted mobility pattern.