mhurhangee/patent-ind-claim-en huggingface dataset:
A data migration method comprising: obtaining, by a host, migration data information of to-be-migrated data in a source solid state disk SSD; determining, by the host, a target SSD; generating, by the host, a read instruction according to access information corresponding to the target SSD and the migration data information; sending, by the host, the read instruction to the source SSD, wherein the read instruction is used to instruct the source SSD to read a data block that is corresponding to the read instruction and in a flash memory of the source SSD into a migration cache of the target SSD; and after a read completion feedback instruction sent by the source SSD is received, sending, by the host, a write instruction to the target SSD, so as to instruct the target SSD to write the data block in the migration cache of the target SSD to a flash memory of the target SSD. obtaining, by a host, migration data information of to-be-migrated data in a source solid state disk SSD; determining, by the host, a target SSD; generating, by the host, a read instruction according to access information corresponding to the target SSD and the migration data information; sending, by the host, the read instruction to the source SSD, wherein the read instruction is used to instruct the source SSD to read a data block that is corresponding to the read instruction and in a flash memory of the source SSD into a migration cache of the target SSD; and after a read completion feedback instruction sent by the source SSD is received, sending, by the host, a write instruction to the target SSD, so as to instruct the target SSD to write the data block in the migration cache of the target SSD to a flash memory of the target SSD.
A liquid ejection device , comprising: a nozzle unit including an array of nozzles through which a liquid is ejected, the array of nozzles being arranged in a matrix; a plurality of actuators each connected to a corresponding one of the nozzles; and a liquid supply unit configured to provide the liquid to be ejected from the nozzles ; and an actuator drive circuit configured to output drive signals to the actuators according to delay times in a delay time matrix corresponding to the matrix of the array, characterized in that the delay times include at least (k + I - 1) different delay times where the delay time matrix has k columns and I rows, and in the delay time matrix: a difference between two delay times that are adjacent in a column or row directions is an odd multiple of a half cycle of a natural vibration period of the liquid in the nozzle unit, and between two adjacent columns and rows, two or more different delay time differences exist between each pair of corresponding delay times of the adjacent columns and rows, respectively. a nozzle unit including an array of nozzles through which a liquid is ejected, the array of nozzles being arranged in a matrix; a plurality of actuators each connected to a corresponding one of the nozzles; and a liquid supply unit configured to provide the liquid to be ejected from the nozzles ; and an actuator drive circuit configured to output drive signals to the actuators according to delay times in a delay time matrix corresponding to the matrix of the array, characterized in that the delay times include at least (k + I - 1) different delay times where the delay time matrix has k columns and I rows, and in the delay time matrix: a difference between two delay times that are adjacent in a column or row directions is an odd multiple of a half cycle of a natural vibration period of the liquid in the nozzle unit, and between two adjacent columns and rows, two or more different delay time differences exist between each pair of corresponding delay times of the adjacent columns and rows, respectively. a difference between two delay times that are adjacent in a column or row directions is an odd multiple of a half cycle of a natural vibration period of the liquid in the nozzle unit, and between two adjacent columns and rows, two or more different delay time differences exist between each pair of corresponding delay times of the adjacent columns and rows, respectively.
A piston for a large four-stroke internal combustion engine, the piston is formed of a piston crown and a piston skirt fastened to one another; the piston crown having exactly three grooves for piston rings in its outer circumference including a groove for an uppermost piston ring, a top surface and a diameter Dp; the top surface having a centre area , a depressed bowl area (146") and an edge area at a level Le; the level Le being a reference level at right angles to the longitudinal axis X of the piston ; the depressed bowl area (146") having a bottom below the level Le of the edge area , and the centre area is a raised centre area extending above the edge area at a distance Hc from the reference level Le, the piston crown further having a top land between the groove for the uppermost piston ring and the level Le of the edge area , characterized in the top land having a thickness HI between the groove for the uppermost piston ring and level Le of the edge area , the thickness HI being 3 ... 10 % of the diameter Dp.
A method for controlling a washing machine, the washing machine comprising a drum for accommodating laundry, a liquid detergent container tank for containing liquid detergent, a fabric softener container tank for containing fabric softener, and a display unit, the method includes following steps: detecting a weight of laundry supplied to the drum of the washing machine; determining a supply quantity of the liquid detergent depending on the detected weight of laundry; the method being characterized by detecting a remaining quantity of the liquid detergent in the liquid detergent container tank ; determining whether a level of liquid detergent exceeds a predetermined level based on the detection result; if the level of liquid detergent exceeds the predetermined level, supplying the liquid detergent to the drum depending on the supply quantity of liquid detergent to perform a washing cycle and a rinsing cycle; and supplying fabric softener to the drum depending on the weight of laundry to perform a final rinsing cycle, wherein if the level of the liquid detergent does not exceed the predetermined level, the display unit displays lack of liquid detergent, and wherein the supplying fabric softener comprises discharging fabric softener from the fabric softener container tank using compressed air. detecting a weight of laundry supplied to the drum of the washing machine; determining a supply quantity of the liquid detergent depending on the detected weight of laundry; the method being characterized by detecting a remaining quantity of the liquid detergent in the liquid detergent container tank ; determining whether a level of liquid detergent exceeds a predetermined level based on the detection result; if the level of liquid detergent exceeds the predetermined level, supplying the liquid detergent to the drum depending on the supply quantity of liquid detergent to perform a washing cycle and a rinsing cycle; and supplying fabric softener to the drum depending on the weight of laundry to perform a final rinsing cycle, wherein if the level of the liquid detergent does not exceed the predetermined level, the display unit displays lack of liquid detergent, and wherein the supplying fabric softener comprises discharging fabric softener from the fabric softener container tank using compressed air.
Method for producing angiographic MR images that are based on unsaturated spins flowing into an imaging volume, in which the signal intensity of the stationary tissue within at least one first imaging slice is reduced by a non-selective RF saturation pulse before exciting the nuclear magnetisation, wherein vessel segments of vessels to be represented of a person under examination in an MR system do not run parallel to a coordinate axis of the MR system, wherein the coordinate axis is a longitudinal axis of a patient tunnel of the MR system , wherein the at least one first imaging slice is excited transverse to the coordinate axis , comprising the following steps: - exciting the nuclear magnetisation in the at least one first imaging slice of the person under examination in order to generate MR signals; and - receiving the MR signals from the at least one first imaging slice in order to produce angiographic MR images of the vessels ; wherein said at least one first imaging slice has a curved slice profile , which is defined such that, in the region in which the vessel segments intersect the at least one first imaging slice , it allows the path of the vessel segments to be as orthogonal as possible to the at least one first imaging slice . - exciting the nuclear magnetisation in the at least one first imaging slice of the person under examination in order to generate MR signals; and - receiving the MR signals from the at least one first imaging slice in order to produce angiographic MR images of the vessels ;
A three-dimensional printer comprising: a first delivery device to selectively deposit a fusing agent onto a layer of build materials to facilitate binding of the build materials to each other through absorption of fusing radiation supplied by a fusing radiation generator ; a second delivery device to deposit coolant droplets at tuned drop weights onto the layer of build materials ; a fusing radiation generator to apply fusing radiation onto the layer of build materials ; and a controller to control the second delivery device to selectively deposit the coolant droplets at the tuned drop weights onto selected areas of the build material layer , characterized in that the drop weights of the selectively deposited coolant droplets are tuned by the controller based upon a fusing radiation absorption property of the fusing agent to provide a thermal balance between multiple areas of the build material layer during application of fusing radiation onto the build material layer . a first delivery device to selectively deposit a fusing agent onto a layer of build materials to facilitate binding of the build materials to each other through absorption of fusing radiation supplied by a fusing radiation generator ; a second delivery device to deposit coolant droplets at tuned drop weights onto the layer of build materials ; a fusing radiation generator to apply fusing radiation onto the layer of build materials ; and a controller to control the second delivery device to selectively deposit the coolant droplets at the tuned drop weights onto selected areas of the build material layer , characterized in that the drop weights of the selectively deposited coolant droplets are tuned by the controller based upon a fusing radiation absorption property of the fusing agent to provide a thermal balance between multiple areas of the build material layer during application of fusing radiation onto the build material layer .
A fixing mechanism, applied to an electronic device to fix an electronic module , the fixing mechanism comprising: a casing , including a baseplate and a side plate that define a space (A1) to accommodate the electronic module , and the side plate having a hole and a seat ; a fixing structure , including: a fixing element , movably extending from an outer side of the side plate into the space (A1) through the hole ; and a pressing portion , rotatably disposed on the seat , and including a first part and a second part , wherein the first part includes an opening , and the second part corresponds to the fixing element ; and a locking structure , configured to be movably set in the opening , and including an engaging element , wherein when the engaging element is engaged in the opening , the locking structure passes through the opening and presses against the side plate to fix the pressing portion , so that the fixing element is fixed in the hole ; wherein the first part and the second part are located on opposite sides of the seat . a casing , including a baseplate and a side plate that define a space (A1) to accommodate the electronic module , and the side plate having a hole and a seat ; a fixing structure , including: a fixing element , movably extending from an outer side of the side plate into the space (A1) through the hole ; and a pressing portion , rotatably disposed on the seat , and including a first part and a second part , wherein the first part includes an opening , and the second part corresponds to the fixing element ; and a fixing element , movably extending from an outer side of the side plate into the space (A1) through the hole ; and a pressing portion , rotatably disposed on the seat , and including a first part and a second part , wherein the first part includes an opening , and the second part corresponds to the fixing element ; and a locking structure , configured to be movably set in the opening , and including an engaging element , wherein when the engaging element is engaged in the opening , the locking structure passes through the opening and presses against the side plate to fix the pressing portion , so that the fixing element is fixed in the hole ; wherein the first part and the second part are located on opposite sides of the seat .
A valve comprising: a valve body forming a portion of a fluid conduit; a shaft disposed through a wall of the fluid conduit; a fluid flow regulating means coupled to the shaft inside the fluid conduit; a rotatable support means coupled to the shaft outside the wall of the fluid conduit; and a proximate bearing coupled to the shaft at a distance from the rotatable support means wherein the proximate bearing is coupled to the conduit via one or more isolation means , wherein the one or more isolation means includes a plate and an isolation gasket , and wherein the shaft comprises an inner shaft portion disposed inside of the fluid conduit and an outer shaft portion disposed outside of the fluid conduit and wherein the inner shaft portion includes a hollow and is configured to prevent the fluid in the fluid conduit from entering the hollow . a valve body forming a portion of a fluid conduit; a shaft disposed through a wall of the fluid conduit; a fluid flow regulating means coupled to the shaft inside the fluid conduit; a rotatable support means coupled to the shaft outside the wall of the fluid conduit; and a proximate bearing coupled to the shaft at a distance from the rotatable support means wherein the proximate bearing is coupled to the conduit via one or more isolation means , wherein the one or more isolation means includes a plate and an isolation gasket , and wherein the shaft comprises an inner shaft portion disposed inside of the fluid conduit and an outer shaft portion disposed outside of the fluid conduit and wherein the inner shaft portion includes a hollow and is configured to prevent the fluid in the fluid conduit from entering the hollow .
A swellable sol-gel composition comprising: a sol-gel composition containing a plurality of alkylsiloxy substituents, the sol-gel composition obtained from: at least one first precursor having the formula (RO) x (R 2 ) y Si((R 1 )Si(R 2 ) y (OR) x ) z where x is 2, 3 or 4, y is 0, 1 or 2 and z is 0 or 1, where the sum of x + y + z is 4, and where each R is independently a C 1 to C 6 alkyl, R 1 is an alkyl or aromatic bridging group and each R 2 is individually an organic group and at least one second precursor having the formula (RO) 3 -Si-(CH 2 ) n -Ar-(CH 2 ) m -Si-(OR) 3 where n and m are individually an integer from 1 to 8, Ar is a single-, fused-, or poly-aromatic ring, and each R is independently an alkyl group as defined above and, optionally, methyl or ethyl and where the sol-gel composition is swellable to at least 1.5 times its volume, when dry, in acetone, according to the measurement method disclosed in the description. at least one first precursor having the formula (RO) x (R 2 ) y Si((R 1 )Si(R 2 ) y (OR) x ) z where x is 2, 3 or 4, y is 0, 1 or 2 and z is 0 or 1, where the sum of x + y + z is 4, and where each R is independently a C 1 to C 6 alkyl, R 1 is an alkyl or aromatic bridging group and each R 2 is individually an organic group and at least one second precursor having the formula (RO) 3 -Si-(CH 2 ) n -Ar-(CH 2 ) m -Si-(OR) 3 where n and m are individually an integer from 1 to 8, Ar is a single-, fused-, or poly-aromatic ring, and each R is independently an alkyl group as defined above and, optionally, methyl or ethyl and where the sol-gel composition is swellable to at least 1.5 times its volume, when dry, in acetone, according to the measurement method disclosed in the description.
A method of producing a reagent comprising the steps of: i. mixing 1-Cloro anthraquinone and ethylene glycol, ii. adding 1-Dodecanethiol to mixed 1-Chloro anthraquinone and ethylene glycol, iii. adding aqueous potassium hydroxide solution to the mixture of (ii) process step and obtaining 1-(Dodecylthio)anthracene-9,10-dione molecule with reflux, iv. purifying of obtained 1-(Dodecylthio)anthracene-9,10-dione molecule, characterized by comprising; v. mixing the purified 1-(Dodecylthio)anthracene-9,10-dione molecule by adding into it an organic solvent, vi. obtaining the solution by diluting hydrogen peroxide with distilled water, vii. preparing iron (II) sulphate distilled water solution, viii. mixing the solution prepared in (v) process step and the solution prepared in (vii) process step, ix. mixing the solution prepared in (viii) process step and the solution prepared in (vi) process step, x. adding stabilizer to the solution obtained in (ix) process step. i. mixing 1-Cloro anthraquinone and ethylene glycol, ii. adding 1-Dodecanethiol to mixed 1-Chloro anthraquinone and ethylene glycol, iii. adding aqueous potassium hydroxide solution to the mixture of (ii) process step and obtaining 1-(Dodecylthio)anthracene-9,10-dione molecule with reflux, iv. purifying of obtained 1-(Dodecylthio)anthracene-9,10-dione molecule, characterized by comprising; v. mixing the purified 1-(Dodecylthio)anthracene-9,10-dione molecule by adding into it an organic solvent, vi. obtaining the solution by diluting hydrogen peroxide with distilled water, vii. preparing iron (II) sulphate distilled water solution, viii. mixing the solution prepared in (v) process step and the solution prepared in (vii) process step, ix. mixing the solution prepared in (viii) process step and the solution prepared in (vi) process step, x. adding stabilizer to the solution obtained in (ix) process step.
A liquid ejecting apparatus comprising: a liquid flow channel connected to a tank , and configured to allow a liquid contained in the tank to flow therethrough; a mounting unit on which a chip unit storing color information for the tank is mounted; a display panel ; and a control unit in communication with the chip unit and the display panel , wherein the control unit is adapted to detect whether or not the color information stored in the chip unit corresponds to preset color information for the tank, and characterized in that if the control unit detects that the color information stored in the chip unit does not correspond to the preset color information for the tank , the control unit is adapted to control the display panel to display a first message asking a user whether or not liquid has been injected into the tank after comparing the ink container with a label of the apparatus main body, wherein when an answer to the first message input by the user indicates that the liquid is injected into the tank without comparing the ink container with a label of the apparatus main body, the control unit is adapted to control the display panel to display a second message asking the user whether or not the color information of the tank and the color information of the liquid injected into the tank correspond to each other. a liquid flow channel connected to a tank , and configured to allow a liquid contained in the tank to flow therethrough; a mounting unit on which a chip unit storing color information for the tank is mounted; a display panel ; and a control unit in communication with the chip unit and the display panel , wherein the control unit is adapted to detect whether or not the color information stored in the chip unit corresponds to preset color information for the tank, and characterized in that if the control unit detects that the color information stored in the chip unit does not correspond to the preset color information for the tank , the control unit is adapted to control the display panel to display a first message asking a user whether or not liquid has been injected into the tank after comparing the ink container with a label of the apparatus main body, wherein when an answer to the first message input by the user indicates that the liquid is injected into the tank without comparing the ink container with a label of the apparatus main body, the control unit is adapted to control the display panel to display a second message asking the user whether or not the color information of the tank and the color information of the liquid injected into the tank correspond to each other.
A fork-carriage apparatus for a lift truck and configured for pulling a load, comprising: a) a mounting frame assembly mountable to the lift truck for vertical movement; b) a side shifter frame assembly slidably mounted to the mounting frame assembly, the side shifter frame assembly laterally translatable along a lateral axis fixed relative to the mounting frame assembly; c) a pivot frame assembly pivotably mounted to the side shifter frame assembly for translating therewith, the pivot frame assembly pivotable about a pivot axis extending perpendicular to the lateral axis, the pivot axis fixed to translate with the side shifter frame assembly; d) a fork assembly mounted to the pivot frame assembly for pivoting therewith, the fork assembly including a pair of forks projecting from the pivot frame assembly parallel to the pivot axis; and e) at least one load-pulling connector mounted to the pivot frame assembly and configured to connect the load to the fork-carriage apparatus for pulling the load. a) a mounting frame assembly mountable to the lift truck for vertical movement; b) a side shifter frame assembly slidably mounted to the mounting frame assembly, the side shifter frame assembly laterally translatable along a lateral axis fixed relative to the mounting frame assembly; c) a pivot frame assembly pivotably mounted to the side shifter frame assembly for translating therewith, the pivot frame assembly pivotable about a pivot axis extending perpendicular to the lateral axis, the pivot axis fixed to translate with the side shifter frame assembly; d) a fork assembly mounted to the pivot frame assembly for pivoting therewith, the fork assembly including a pair of forks projecting from the pivot frame assembly parallel to the pivot axis; and e) at least one load-pulling connector mounted to the pivot frame assembly and configured to connect the load to the fork-carriage apparatus for pulling the load.