mhurhangee/patent-ind-claim-en huggingface dataset:
A ferromagnetic amorphous alloy ribbon comprising an alloy having a composition represented by Fe a Si b B c C d where 80.5 ≤ a ≤ 83 at.%, 0.5 ≤ b ≤ 6 at.%, 12 ≤ c ≤ 16.5 at.%, 0.01 ≤ d ≤1 at.% with a + b + c + d = 100 and incidental impurities, the ribbon having a ribbon length, a ribbon thickness, a ribbon width, and a ribbon surface facing a casting atmosphere side, the ribbon, when in an annealed straight strip form, having a saturation magnetic induction exceeding 1.60 T and exhibiting a magnetic core loss of less than 0.14 W/kg when measured at 60 Hz and at 1.3 T induction level, the ribbon characterized in that : the ribbon has ribbon surface defects formed on the ribbon surface facing the casting atmosphere side; the ribbon surface defects are being measured in terms of a defect length, a defect depth, and a defect occurrence frequency; and the defect length along a direction of the ribbon's length is between 5 mm and 200 mm, the defect depth being at less than 0.4× t μm and the defect occurrence frequency being less than 0.05× w times within 1.5 m of the ribbon length, where t is the ribbon thickness and w is the ribbon width in mm. the ribbon has ribbon surface defects formed on the ribbon surface facing the casting atmosphere side; the ribbon surface defects are being measured in terms of a defect length, a defect depth, and a defect occurrence frequency; and the defect length along a direction of the ribbon's length is between 5 mm and 200 mm, the defect depth being at less than 0.4× t μm and the defect occurrence frequency being less than 0.05× w times within 1.5 m of the ribbon length, where t is the ribbon thickness and w is the ribbon width in mm.
A compound of formula (Ia), or a pharmaceutically acceptable salt thereof: wherein R' is an alkyl-amino moiety comprising a tertiary alkyl-substituted amine having a pKa of 9.5 or greater.
A speech aid device comprising: a mount configured to couple to a head of a user; at least one sonic signal transmitter coupled to the mount ; and a power supply electrically coupled to the at least one sonic signal transmitter , wherein the at least one sonic signal transmitter is configured to transmit a sonic signal into a nasal cavity of the user when the mount is coupled to the head of the user, wherein the at least one sonic signal transmitter comprises at least one speaker and at least one tube extending from the at least one speaker , wherein the at least one tube is configured to be received within a nostril of the user, and wherein the at least one speaker is configured to transmit the sonic signal into the nostril via the at least one tube . a mount configured to couple to a head of a user; at least one sonic signal transmitter coupled to the mount ; and a power supply electrically coupled to the at least one sonic signal transmitter , wherein the at least one sonic signal transmitter is configured to transmit a sonic signal into a nasal cavity of the user when the mount is coupled to the head of the user, wherein the at least one sonic signal transmitter comprises at least one speaker and at least one tube extending from the at least one speaker , wherein the at least one tube is configured to be received within a nostril of the user, and wherein the at least one speaker is configured to transmit the sonic signal into the nostril via the at least one tube .
System configured to execute a closed loop control on data for cloud-based applications comprising: • an industrial automation device configured to generate cloud variables, • a cloud-based application , which is hosted by a network device with a cloud-computing infrastructure, • an industrial controller configured to control the industrial automation device by a user-defined program , hosted by industrial controller, • the user-defined program configured to receive the cloud variables, • a cloud agent configured for communication with the user-defined control program, and for communication with the cloud-based application, further configured to: collecting the cloud variables and sending the cloud variables to the cloud-based application, • the cloud-based application configured to determine updated optimized cloud variables and to notify the cloud agent in the industrial controller with the updated optimized cloud variables • the cloud agent configured to reload the updated optimized cloud variables and to notify the user-defined control program with the updated optimized cloud variables, • the user-defined control program further configured to include cloud constructs and to reload the updated optimized cloud variables in the user-defined control program, wherein the cloud constructs declare the cloud variables that are to be updated by the cloud-based application and request the updated optimized cloud variables on runtime. • an industrial automation device configured to generate cloud variables, • a cloud-based application , which is hosted by a network device with a cloud-computing infrastructure, • an industrial controller configured to control the industrial automation device by a user-defined program , hosted by industrial controller, • the user-defined program configured to receive the cloud variables, • a cloud agent configured for communication with the user-defined control program, and for communication with the cloud-based application, further configured to: collecting the cloud variables and sending the cloud variables to the cloud-based application, • the cloud-based application configured to determine updated optimized cloud variables and to notify the cloud agent in the industrial controller with the updated optimized cloud variables • the cloud agent configured to reload the updated optimized cloud variables and to notify the user-defined control program with the updated optimized cloud variables, • the user-defined control program further configured to include cloud constructs and to reload the updated optimized cloud variables in the user-defined control program, wherein the cloud constructs declare the cloud variables that are to be updated by the cloud-based application and request the updated optimized cloud variables on runtime.
An apparatus comprising: a first actuator ; a second actuator ; a processor coupled to the first and second actuators , the processor configured to apply a first command signal to the first actuator to output a first haptic effect from a first start time to a first stop time, the processor configured to apply a second command signal to the second actuator to output a second haptic effect from a second start time to a second stop time; a computer-readable medium configured to store first and second actuator information, the first actuator information comprising at least one parameter describing a performance characteristic of the first actuator , and the second actuator information comprising at least one parameter describing a performance characteristic of the second actuator ; and wherein the processor is configured to: receive a command; determine a haptic effect based on the command; select one or both of the first actuator and the second actuator based at least in part on the haptic effect, and analysis of the first actuator information and of the second actuator information, and if the first actuator is selected, generate the first command signal, and if the second actuator is selected, generate the second command signal. a first actuator ; a second actuator ; a processor coupled to the first and second actuators , the processor configured to apply a first command signal to the first actuator to output a first haptic effect from a first start time to a first stop time, the processor configured to apply a second command signal to the second actuator to output a second haptic effect from a second start time to a second stop time; a computer-readable medium configured to store first and second actuator information, the first actuator information comprising at least one parameter describing a performance characteristic of the first actuator , and the second actuator information comprising at least one parameter describing a performance characteristic of the second actuator ; and wherein the processor is configured to: receive a command; determine a haptic effect based on the command; select one or both of the first actuator and the second actuator based at least in part on the haptic effect, and analysis of the first actuator information and of the second actuator information, and if the first actuator is selected, generate the first command signal, and receive a command; determine a haptic effect based on the command; select one or both of the first actuator and the second actuator based at least in part on the haptic effect, and analysis of the first actuator information and of the second actuator information, and if the first actuator is selected, generate the first command signal, and if the second actuator is selected, generate the second command signal.
A control system for an electric motor , the control system comprising a controller which receives as an input a demanded motor current, the controller producing at an output an intermediate voltage demand signal, a voltage demand signal correction means arranged to generate a voltage demand correction signal, and a combining means arranged to combine the intermediate voltage demand signal and the voltage demand correction signal to produce an actual voltage demand signal that is applied to the motor by pulse width modulation of the switches of a motor bridge driver , the voltage demand correction signal at least partially compensating for unwanted non-linearity in the relationship between the intermediate voltage demand signal and the motor current caused by interlock delays in the switching of the motor bridge switches, characterised in that the voltage demand correction signal is a feed forward term that modifies the effect of non-linearity to leave a predefined amount of the non-linearity between the intermediate voltage demand signal and the motor current.
A hydrogen system comprising: a hydrogen production apparatus configured to produce hydrogen; a hydrogen storage apparatus configured to store hydrogen produced by the hydrogen production apparatus; a first flow path configured to supply hydrogen discharged from the hydrogen production apparatus to the hydrogen storage apparatus by flowing therethrough; a second flow path configured to supply hydrogen discharged from the hydrogen storage apparatus to a hydrogen-using apparatus by flowing therethrough; a casing configured to house the hydrogen production apparatus, the hydrogen storage apparatus, the first flow path and at least part of the second flow path; a third flow path (6, 6A-6H, 6K, 6L), wherein hydrogen discharged from at least one of the hydrogen production apparatus, the hydrogen storage apparatus, the first flow path and the at least part of the second flow path is configured to flow outside the casing through the third flow path; a first valve that is provided in the third flow path; and a controller configured to open the first valve, wherein the third flow path (6, 6A-6H, 6K, 6L) branches from the first flow path . a hydrogen production apparatus configured to produce hydrogen; a hydrogen storage apparatus configured to store hydrogen produced by the hydrogen production apparatus; a first flow path configured to supply hydrogen discharged from the hydrogen production apparatus to the hydrogen storage apparatus by flowing therethrough; a second flow path configured to supply hydrogen discharged from the hydrogen storage apparatus to a hydrogen-using apparatus by flowing therethrough; a casing configured to house the hydrogen production apparatus, the hydrogen storage apparatus, the first flow path and at least part of the second flow path; a third flow path (6, 6A-6H, 6K, 6L), wherein hydrogen discharged from at least one of the hydrogen production apparatus, the hydrogen storage apparatus, the first flow path and the at least part of the second flow path is configured to flow outside the casing through the third flow path; a first valve that is provided in the third flow path; and a controller configured to open the first valve, wherein the third flow path (6, 6A-6H, 6K, 6L) branches from the first flow path .
A tube straightening process using a roll straightening machine in which drum type straightening roll pairs (Ra1, Rb1; Ra2, Rb2; Ra3, Rb3) are disposed, the rolls of each pair being vertically opposed to each other, in a manner such that directions of rotating axes of rolls in each pair are horizontally oppositely diverted so as to horizontally cross, characterized in that : in at least three pairs of straightening rolls on an outlet-side of the roll straightening machine, at least an outer layer portion of a roll main body is made of elastic material having spring type hardness Hs (JIS K 6301 A type) of 50 to 100, and an offset amount (δ) is imparted to a tube engaged in the three pairs, at least, of straightening opposing rolls on the outlet side such that η defined by the following equation ranges from 1.0×10- 3 to 1.5x10 -3 , the offset amount (δ) being set at each of three positions along the tube axis where the upper and lower rolls of each pair horizontally cross: [Formula 1] η = 1 R × d 2 where a relationship of R= (δ 2 + L 2 )/2δ holds, given that d (mm) is a tube outside diameter, L (mm) is a roll stand span of the roll straightening machine, and δ (mm) is an offset amount, and a tube outside diameter is 30 mm or less. in at least three pairs of straightening rolls on an outlet-side of the roll straightening machine, at least an outer layer portion of a roll main body is made of elastic material having spring type hardness Hs (JIS K 6301 A type) of 50 to 100, and an offset amount (δ) is imparted to a tube engaged in the three pairs, at least, of straightening opposing rolls on the outlet side such that η defined by the following equation ranges from 1.0×10- 3 to 1.5x10 -3 , the offset amount (δ) being set at each of three positions along the tube axis where the upper and lower rolls of each pair horizontally cross: [Formula 1] η = 1 R × d 2 where a relationship of R= (δ 2 + L 2 )/2δ holds, given that d (mm) is a tube outside diameter, L (mm) is a roll stand span of the roll straightening machine, and δ (mm) is an offset amount, and a tube outside diameter is 30 mm or less.
An orchestration and management system, comprising: an inter-slice Management and Orchestration, MANO, module , a network-slice MANO module , a subnet-slice MANO module , and a Virtualized Network Function entity , VNF , wherein the inter-slice MANO module is configured to manage a life cycle of a network slice; the network-slice MANO module is located in the network slice and configured to manage a life cycle of a network service; and the subnet-slice MANO module is located in a subnet slice of the network slice and configured to manage a life cycle of the VNF , wherein the subnet slice is one or more subnet segments obtained by dividing the network slice according to a preset rule; the inter-slice MANO module is further configured to receive a service starting request of a user, activate loading of the network-slice MANO module according to the service starting request, and instruct the network-slice MANO module to create the network service, wherein the service starting request comprises Quality of Service, QoS, requirements; the network-slice MANO module is further configured to create the network service, activate loading of the subnet-slice MANO module, and issue VNF requirements into the subnet slice; and the subnet-slice MANO module is further configured to activate loading of the VNF . the inter-slice MANO module is configured to manage a life cycle of a network slice; the network-slice MANO module is located in the network slice and configured to manage a life cycle of a network service; and the subnet-slice MANO module is located in a subnet slice of the network slice and configured to manage a life cycle of the VNF , wherein the subnet slice is one or more subnet segments obtained by dividing the network slice according to a preset rule; the inter-slice MANO module is further configured to receive a service starting request of a user, activate loading of the network-slice MANO module according to the service starting request, and instruct the network-slice MANO module to create the network service, wherein the service starting request comprises Quality of Service, QoS, requirements; the network-slice MANO module is further configured to create the network service, activate loading of the subnet-slice MANO module, and issue VNF requirements into the subnet slice; and the subnet-slice MANO module is further configured to activate loading of the VNF .
A method for bonding a structural component to a rail , the rail including a bottom surface , a first sidewall extending from the bottom surface , and a second sidewall extending from the bottom surface to thereby define a channel , the method comprising: positioning a bonding agent in a plurality of blind holes defined in the bottom surface of the rail ; positioning a plurality of spacers in the plurality of blind holes such that each of the plurality of blind holes receives one of the plurality of spacers , wherein each of the plurality of spacers has a stem and a top portion extending substantially perpendicular to the stem , and wherein the stem of each of the plurality of spacers is positioned in each of the plurality of blind holes such that a longitudinal axis of the top portion of each of the plurality of spacers is parallel to a longitudinal axis of the channel ; positioning the structural component at least partially into the channel such that the structural component rests on each of the plurality of spacers , wherein a first gap is defined between the structural component and the bottom surface of the rail , wherein a second gap is defined between the structural component and the first sidewall of the rail , and wherein a third gap is defined between the structural component and the second sidewall of the rail ; and injecting the bonding agent into the channel such that each of the first gap , the second gap , and the third gap includes the bonding agent to thereby bond the structural component to the rail . positioning a bonding agent in a plurality of blind holes defined in the bottom surface of the rail ; positioning a plurality of spacers in the plurality of blind holes such that each of the plurality of blind holes receives one of the plurality of spacers , wherein each of the plurality of spacers has a stem and a top portion extending substantially perpendicular to the stem , and wherein the stem of each of the plurality of spacers is positioned in each of the plurality of blind holes such that a longitudinal axis of the top portion of each of the plurality of spacers is parallel to a longitudinal axis of the channel ; positioning the structural component at least partially into the channel such that the structural component rests on each of the plurality of spacers , wherein a first gap is defined between the structural component and the bottom surface of the rail , wherein a second gap is defined between the structural component and the first sidewall of the rail , and wherein a third gap is defined between the structural component and the second sidewall of the rail ; and injecting the bonding agent into the channel such that each of the first gap , the second gap , and the third gap includes the bonding agent to thereby bond the structural component to the rail .
A cell culturing substrate comprising a material having an external surface for culturing cells thereon, the material containing a bulk-modified elastomer having an elastomer bulk and a plurality of residues each comprising one or more acidic groups in free and/or conjugated base form, the plurality of residues being covalently bound to the elastomer bulk as a result of a reaction between an unsaturated carbon-carbon bond of a precursor of the residue and a vinyl or hydride functional group of the elastomer bulk, such that part of the one or more acidic groups is available on the external surface, wherein the residue concentration in the bulk modified elastomer is in a range of 2.10 -4 to 1.10 -2 mol/kg by weight of the total weight of the elastomer.
A printhead comprising: a firing resistor ; a switch connected to a node and configured to control current through the firing resistor ; pre-charge transistor configured to pre-charge the node during a pre-charge cycle responsive to a pre-charge signal (PRE) providing a voltage pulse across the pre-charge transistor to the node to a pre-charge voltage level that is sufficient to turn on switch ; a first transistor (82, MN1, MN2) having a first terminal connected to the node and a second terminal connected to a reference potential and configured to selectively discharge the node to the reference potential during a discharge cycle when a select signal (SEL, PSEL) has a level to turn on the first transistor (82, MN1, MN2); and a second transistor (MN14, MN1) having a first terminal connected to the node and a second terminal connected to the reference potential and configured to selectively discharge the node to the reference potential. a firing resistor ; a switch connected to a node and configured to control current through the firing resistor ; pre-charge transistor configured to pre-charge the node during a pre-charge cycle responsive to a pre-charge signal (PRE) providing a voltage pulse across the pre-charge transistor to the node to a pre-charge voltage level that is sufficient to turn on switch ; a first transistor (82, MN1, MN2) having a first terminal connected to the node and a second terminal connected to a reference potential and configured to selectively discharge the node to the reference potential during a discharge cycle when a select signal (SEL, PSEL) has a level to turn on the first transistor (82, MN1, MN2); and a second transistor (MN14, MN1) having a first terminal connected to the node and a second terminal connected to the reference potential and configured to selectively discharge the node to the reference potential.
An electronic component supply body comprising: an embossed carrier tape which is formed in a long shape and has a plurality of accommodating recesses on the surface thereof respectively accommodating one electronic component ; and a cover film which is formed in a long shape and is laminated on the surface of the embossed carrier tape to seal the accommodating recess , characterized in that a pasting surface of the cover film to be pasted to the embossed carrier tape is formed with a concave-convex portion on which a plurality of protrusions are formed such that variations in the peeling force generated when the cover film is peeled are suppressed, wherein the protrusions are formed by piercing the cover film with a needle to form a through hole so that the periphery of the through hole through which the needle tip penetrates protrudes in a convex shape, and wherein a plurality of the through holes are formed uniformly over the entire surface of the cover film . an embossed carrier tape which is formed in a long shape and has a plurality of accommodating recesses on the surface thereof respectively accommodating one electronic component ; and a cover film which is formed in a long shape and is laminated on the surface of the embossed carrier tape to seal the accommodating recess , characterized in that a pasting surface of the cover film to be pasted to the embossed carrier tape is formed with a concave-convex portion on which a plurality of protrusions are formed such that variations in the peeling force generated when the cover film is peeled are suppressed, wherein the protrusions are formed by piercing the cover film with a needle to form a through hole so that the periphery of the through hole through which the needle tip penetrates protrudes in a convex shape, and wherein a plurality of the through holes are formed uniformly over the entire surface of the cover film .