mhurhangee/patent-ind-claim-en huggingface dataset:
A drug infusion system comprising: a first infusion pump including a first processor and a first input device in operable communication with the first processor; and a second infusion pump including a second processor and a second input device in operable communication with the second processor, wherein either one of the first infusion pump or the second infusion pump can be designated as a master infusion pump such that the respective first or second processor of the master infusion pump (i) enables an operator to make a selection using the respective first or second input device, the selection specifying a preprogrammed combination of a plurality of drugs to be delivered to a patient using the first and second infusion pumps, the preprogrammed combination including a timed delivery start for each of the plurality of drugs such that the relationship between the time delivery starts of the plurality of drugs is specified, and (ii) commands the first infusion pump to deliver one or more drug of the combination to the patient and the second infusion pump to deliver one or more drug of the combination to the patient. a first infusion pump including a first processor and a first input device in operable communication with the first processor; and a second infusion pump including a second processor and a second input device in operable communication with the second processor, wherein either one of the first infusion pump or the second infusion pump can be designated as a master infusion pump such that the respective first or second processor of the master infusion pump (i) enables an operator to make a selection using the respective first or second input device, the selection specifying a preprogrammed combination of a plurality of drugs to be delivered to a patient using the first and second infusion pumps, the preprogrammed combination including a timed delivery start for each of the plurality of drugs such that the relationship between the time delivery starts of the plurality of drugs is specified, and (ii) commands the first infusion pump to deliver one or more drug of the combination to the patient and the second infusion pump to deliver one or more drug of the combination to the patient. (i) enables an operator to make a selection using the respective first or second input device, the selection specifying a preprogrammed combination of a plurality of drugs to be delivered to a patient using the first and second infusion pumps, the preprogrammed combination including a timed delivery start for each of the plurality of drugs such that the relationship between the time delivery starts of the plurality of drugs is specified, and (ii) commands the first infusion pump to deliver one or more drug of the combination to the patient and the second infusion pump to deliver one or more drug of the combination to the patient.
A system for controlling an autonomous vehicle , comprising: a memory configured to store parameters of a g-g plot defining admissible space of values of longitudinal and lateral accelerations , the g-g plot parameters include a maximum forward acceleration (a), a maximum backward acceleration (b), a maximum lateral acceleration (c) and a shape parameter (p) defining profile of curves connecting maximum values of forward, backward, and lateral accelerations; an input interface configured to accept a comfort level as a feedback from a passenger of the vehicle ; a processor configured to determine a dominant parameter corresponding to the feedback and to update the dominant parameter of the g-g plot based on the comfort level indicated in the feedback; and a controller configured to control the vehicle to maintain dynamics of the vehicle within the admissible space defined by the parameters of the updated g-g plot . a memory configured to store parameters of a g-g plot defining admissible space of values of longitudinal and lateral accelerations , the g-g plot parameters include a maximum forward acceleration (a), a maximum backward acceleration (b), a maximum lateral acceleration (c) and a shape parameter (p) defining profile of curves connecting maximum values of forward, backward, and lateral accelerations; an input interface configured to accept a comfort level as a feedback from a passenger of the vehicle ; a processor configured to determine a dominant parameter corresponding to the feedback and to update the dominant parameter of the g-g plot based on the comfort level indicated in the feedback; and a controller configured to control the vehicle to maintain dynamics of the vehicle within the admissible space defined by the parameters of the updated g-g plot .
A sample conveying device comprising: a conveying surface that conveys a conveying container provided with a magnetic material thereon; a position detection unit that obtains a position of the conveying container on the conveying surface ; a plurality of magnetic poles that are disposed below the conveying surface and provided with cores and coils ; a driving unit that applies a voltage to the magnetic poles ; and a control unit that controls the driving unit , wherein the control unit obtains a general conveyance speed of the conveying container from the position of the conveying container detected by the position detection unit to determine whether the general conveyance speed is abnormal, the device being characterised in that , when it is determined that the general conveyance speed is abnormal, the control unit conveys a reference conveying container and determines a cause of an abnormality in the general conveyance speed based on a conveyance speed of the reference conveying container . a conveying surface that conveys a conveying container provided with a magnetic material thereon; a position detection unit that obtains a position of the conveying container on the conveying surface ; a plurality of magnetic poles that are disposed below the conveying surface and provided with cores and coils ; a driving unit that applies a voltage to the magnetic poles ; and a control unit that controls the driving unit , wherein the control unit obtains a general conveyance speed of the conveying container from the position of the conveying container detected by the position detection unit to determine whether the general conveyance speed is abnormal, the device being characterised in that , when it is determined that the general conveyance speed is abnormal, the control unit conveys a reference conveying container and determines a cause of an abnormality in the general conveyance speed based on a conveyance speed of the reference conveying container .
A method for wireless communications by a user equipment, UE, comprising: determining whether a control resource set, coreset, of time and frequency resources within a control region of system bandwidth, conveys a physical downlink control channel, PDCCH, transmitted by a base station, BS, (110a, 110b, 110c, 1 10x, 110y, 1 10z), via a single-carrier waveform or a multicarrier waveform, wherein coexistence of coresets with different waveforms, single-carrier or multicarrier, is configured in the downlink; and processing the PDCCH according to the determination.
A method for power generation, the method comprising: combusting a fuel in a combustor with an oxidant in the presence of a compressed stream of carbon dioxide to form a compressed combustion product stream; expanding the compressed combustion product stream across a turbine to generate power and provide an expanded combustion product stream; passing the expanded combustion product stream through a primary heat exchanger to recuperate an available quantity of heat therefrom and form a cooled turbine exhaust stream; removing water from the cooled turbine exhaust stream to provide a stream of carbon dioxide; compressing the stream of carbon dioxide to form the compressed stream of carbon dioxide; recycling the compressed stream of carbon dioxide back to the combustor ; heating a circulating fluid stream in a low-grade heat source to form a heated circulating fluid stream; and using the heated circulating fluid stream to increase the available quantity of heat in the expanded combustion product stream that is recuperated with the primary heat exchanger . combusting a fuel in a combustor with an oxidant in the presence of a compressed stream of carbon dioxide to form a compressed combustion product stream; expanding the compressed combustion product stream across a turbine to generate power and provide an expanded combustion product stream; passing the expanded combustion product stream through a primary heat exchanger to recuperate an available quantity of heat therefrom and form a cooled turbine exhaust stream; removing water from the cooled turbine exhaust stream to provide a stream of carbon dioxide; compressing the stream of carbon dioxide to form the compressed stream of carbon dioxide; recycling the compressed stream of carbon dioxide back to the combustor ; heating a circulating fluid stream in a low-grade heat source to form a heated circulating fluid stream; and using the heated circulating fluid stream to increase the available quantity of heat in the expanded combustion product stream that is recuperated with the primary heat exchanger .
A heat exchanger for an oxygenator comprising: a hollow fiber membrane layer having a plurality of hollow fiber membranes , characterized in that each of the hollow fiber membranes has a barrier layer having a hydrogen peroxide barrier property, and the barrier layer has an oxygen permeability coefficient of 6 cc·cm/m 2 ·24 h/atm or less at 25°C. a hollow fiber membrane layer having a plurality of hollow fiber membranes , characterized in that each of the hollow fiber membranes has a barrier layer having a hydrogen peroxide barrier property, and the barrier layer has an oxygen permeability coefficient of 6 cc·cm/m 2 ·24 h/atm or less at 25°C.
A brake for an elevator system , the brake comprising: a first brake lining configured to be frictionally engageable with a rail of the elevator system ; a second brake lining configured to be frictionally engageable with the rail ; a first biasing member configured to urge the first brake lining to engage the rail ; and a first actuator configured to move the first brake lining to disengage the rail when the first actuator is energized, wherein the brake is configured to be mounted on an elevator car of the elevator system ; wherein the first actuator further comprises a backing block , a first solenoid housed in the backing block , and a first armature disposed between the solenoid and the first brake lining ; a second biasing member configured to urge the second brake lining to engage the rail ; and a second actuator configured to move the second brake lining to disengage the rail when the second actuator is energized; wherein the second actuator is disposed on a second side of the rail , opposite to the first actuator ; wherein the second actuator comprises a second backing block and a second solenoid housed in the backing block , wherein the first and second biasing members are configured to generate a first flux path across the rail . a first brake lining configured to be frictionally engageable with a rail of the elevator system ; a second brake lining configured to be frictionally engageable with the rail ; a first biasing member configured to urge the first brake lining to engage the rail ; and a first actuator configured to move the first brake lining to disengage the rail when the first actuator is energized, wherein the brake is configured to be mounted on an elevator car of the elevator system ; wherein the first actuator further comprises a backing block , a first solenoid housed in the backing block , and a first armature disposed between the solenoid and the first brake lining ; a second biasing member configured to urge the second brake lining to engage the rail ; and a second actuator configured to move the second brake lining to disengage the rail when the second actuator is energized; wherein the second actuator is disposed on a second side of the rail , opposite to the first actuator ; wherein the second actuator comprises a second backing block and a second solenoid housed in the backing block , wherein the first and second biasing members are configured to generate a first flux path across the rail .
A device (10; 20; 70) for applying a fluid product onto skin, the device comprising: a housing (11; 21; 71) for receiving the fluid product and a gas; an outlet (104; 204; 104) in said housing through which the fluid product and gas are dispensed onto an area of the skin; a fluid conduit (117; 717) through which the fluid product passes to the outlet (104; 204; 104); a gas conduit (103; 703) through which the gas passes to the outlet (104; 204; 104); and a heater (16; 26; 76) arranged or configured to heat the gas and/or to heat the fluid product before the gas and the fluid product are dispensed through the outlet (104; 204; 104) ; wherein the fluid product meets the gas adjacent to the outlet (104; 204; 104) where the gas collects the fluid product such that the heated gas and fluid product are projected together through the outlet (104; 204; 104), and the gas and fluid product are applied to the skin in a heated state; wherein a section (100; 200; 700) of the housing (11; 21; 71) is configured to contact the skin in use and be moved across the skin as the product is applied. a housing (11; 21; 71) for receiving the fluid product and a gas; an outlet (104; 204; 104) in said housing through which the fluid product and gas are dispensed onto an area of the skin; a fluid conduit (117; 717) through which the fluid product passes to the outlet (104; 204; 104); a gas conduit (103; 703) through which the gas passes to the outlet (104; 204; 104); and a heater (16; 26; 76) arranged or configured to heat the gas and/or to heat the fluid product before the gas and the fluid product are dispensed through the outlet (104; 204; 104) ; wherein the fluid product meets the gas adjacent to the outlet (104; 204; 104) where the gas collects the fluid product such that the heated gas and fluid product are projected together through the outlet (104; 204; 104), and the gas and fluid product are applied to the skin in a heated state; wherein a section (100; 200; 700) of the housing (11; 21; 71) is configured to contact the skin in use and be moved across the skin as the product is applied.
Method for detecting and quantifying charged molecules included in a fluid, said method comprising steps of: - placing in the fluid a nanosensor comprising a functionalized radio grafted track-etched membrane (FRTEM) which contains polymer nanopores; a first electrode arranged on a first side of the functionalized radio grafted track-etched membrane (FRTEM), and a second electrode arranged on a second side of the functionalized radio grafted track-etched membrane (FRTEM), - capturing charged molecules of the fluid inside the polymer nanopores, and - applying an in situ stripping voltammetry analysis by using: - said first electrode as working electrode, - said second electrode as counter electrode, and - a reference electrode arranged in the fluid. - placing in the fluid a nanosensor comprising a functionalized radio grafted track-etched membrane (FRTEM) which contains polymer nanopores; a first electrode arranged on a first side of the functionalized radio grafted track-etched membrane (FRTEM), and a second electrode arranged on a second side of the functionalized radio grafted track-etched membrane (FRTEM), - capturing charged molecules of the fluid inside the polymer nanopores, and - applying an in situ stripping voltammetry analysis by using: - said first electrode as working electrode, - said second electrode as counter electrode, and - a reference electrode arranged in the fluid. - said first electrode as working electrode, - said second electrode as counter electrode, and - a reference electrode arranged in the fluid.
A surface treatment composition capable of imparting underwater stain repellency to surfaces, said composition containing a reactive polymer represented by formula (I): (R 1 O) i (R 2 ) 3-i Si-R 3 -X-pol (I) wherein: R 1 and R 2 are each independently selected from hydrogen atom and optionally substituted C 1-20 alkyl; R 3 is selected from substituted and unsubstituted C 1-12 alkylenes; X is a linker group; pol is a residue of a hydrophilic polymer selected from polyethylene glycol, polypropylene glycol, polyvinyl alcohol, poly(vinylpyrrolidone), polysaccharides and copolymers thereof; i = 1, 2 or 3; wherein the composition contains 0.01 to 10 wt% of the reactive polymer; and wherein the composition is a toothpaste, a tooth powder or a mouthwash. R 1 and R 2 are each independently selected from hydrogen atom and optionally substituted C 1-20 alkyl; R 3 is selected from substituted and unsubstituted C 1-12 alkylenes; X is a linker group; pol is a residue of a hydrophilic polymer selected from polyethylene glycol, polypropylene glycol, polyvinyl alcohol, poly(vinylpyrrolidone), polysaccharides and copolymers thereof; i = 1, 2 or 3; wherein the composition contains 0.01 to 10 wt% of the reactive polymer; and wherein the composition is a toothpaste, a tooth powder or a mouthwash.
A method for creating a JFET, comprising: a. applying a first mask to a wafer to form a first patterned hard masking layer to the top of the wafer, the wafer comprising an upper drift region and a bottom drain region ; b. applying three implants to the unmasked portion of the top of the wafer to form a bottom gate region , a horizontal channel region , and a top gate region in an upper portion of the drift region ; c. forming a source region in a portion of the top gate region; d. connecting the top and bottom gate regions . a. applying a first mask to a wafer to form a first patterned hard masking layer to the top of the wafer, the wafer comprising an upper drift region and a bottom drain region ; b. applying three implants to the unmasked portion of the top of the wafer to form a bottom gate region , a horizontal channel region , and a top gate region in an upper portion of the drift region ; c. forming a source region in a portion of the top gate region; d. connecting the top and bottom gate regions .
A polynucleotide molecule encoding a modified live, attenuated chimeric dengue-1/dengue-2 virus polypeptide molecule, the polynucleotide molecule comprising a first nucleotide sequence encoding nonstructural proteins from a modified live, attenuated dengue-2 virus strain PDK-53-V, and a second nucleotide sequence encoding at least one structural protein from dengue-1, wherein the polynucleotide molecule comprises: an adenine to cytosine mutation at position 3823 encoding a leucine instead of an isoleucine in the dengue-1/dengue-2 polypeptide chimera at amino acid position 1243 corresponding to NS2A-116; an adenine to thymine mutation at position 4407 encoding an aspartic acid instead of a glutamic acid in the dengue-1/dengue-2 polypeptide chimera at amino acid position 1437 corresponding to NS2B-92; and an adenine to guanine mutation at position 7311. an adenine to cytosine mutation at position 3823 encoding a leucine instead of an isoleucine in the dengue-1/dengue-2 polypeptide chimera at amino acid position 1243 corresponding to NS2A-116; an adenine to thymine mutation at position 4407 encoding an aspartic acid instead of a glutamic acid in the dengue-1/dengue-2 polypeptide chimera at amino acid position 1437 corresponding to NS2B-92; and an adenine to guanine mutation at position 7311.
Paper strip dispenser in the form of a spool , this dispenser comprising a casing for housing the spool of paper, and a moving actuator for switching between an open position allowing a paper spool to be introduced into the casing , and a closed position, characterised by the fact that it contains a mobile brake between, on the one hand an inactive position that it occupies when the actuator is in the open position, and in which it allows a paper spool to be introduced into its casing , and on the other hand a braking position in which it can interact with the paper spool when the actuator is in the closed position, the displacement of the brake between its inactive position and its braking position being servo-linked to the movement of the actuator between its open and closed positions.
A memory controller , comprising: an interface for communicating with a memory device which includes a first NAND die (DIEO) and a second NAND die (DIE1), the first die including a first block (BLKO) and a second block (BLK1), and the second die including a third block (BLKO) and a fourth block (BLK1); and a control module configured to manage the memory device in units of a first super block (SPBLKO) and a second super block (SPBLK1), the first super block including the first block and the third block, and the second super block including the second block and the fourth block, wherein the control module is configured to complete a program on the first super block, characterized in that the control module is further configured to complete an erase on the second super block before starting the program on the second super block, and to perform the erase on the second super block in multiple steps, wherein the control module is configured such that completion of the program on the first super block and the erase on the second super block includes: performing a first step erase of the second block, after programming a first portion of the first block, programming a second portion of the first block, after the first step erase of the second block, and performing a second step erase of the second block, after programming the second portion of the first block. an interface for communicating with a memory device which includes a first NAND die (DIEO) and a second NAND die (DIE1), the first die including a first block (BLKO) and a second block (BLK1), and the second die including a third block (BLKO) and a fourth block (BLK1); and a control module configured to manage the memory device in units of a first super block (SPBLKO) and a second super block (SPBLK1), the first super block including the first block and the third block, and the second super block including the second block and the fourth block, wherein the control module is configured to complete a program on the first super block, characterized in that the control module is further configured to complete an erase on the second super block before starting the program on the second super block, and to perform the erase on the second super block in multiple steps, wherein the control module is configured such that completion of the program on the first super block and the erase on the second super block includes: performing a first step erase of the second block, after programming a first portion of the first block, programming a second portion of the first block, after the first step erase of the second block, and performing a second step erase of the second block, after programming the second portion of the first block. performing a first step erase of the second block, after programming a first portion of the first block, programming a second portion of the first block, after the first step erase of the second block, and performing a second step erase of the second block, after programming the second portion of the first block.