mhurhangee/ep-ind-claims huggingface dataset:
A printing apparatus comprising: a holding unit which is arranged to simultaneously hold, so as to be rotatable, a plurality of roll bodies on each of which a medium is wound in a cylindrical shape; a transport device which is arranged to transport the plurality of mediums in the transport direction in a state of being lined up in the width direction and which has a transport unit that is arranged to impart a transport force in a transport direction by coming into contact with the mediums that are unwound from the plurality of roll bodies which are held by the holding unit, a plurality of pressing units which are arranged to press the plurality of mediums toward the transport unit, and a plurality of adjustment units corresponding to the plurality of pressing units and which are each arranged to adjust a pressing force of a respective one of the plurality of pressing units so as to adjust the pressing force applied to the plurality of mediums in each of a plurality of regions in a width direction that intersects with the transport direction; a printing unit which is arranged to perform printing on the plurality of mediums that are transported by the transport device; and a control unit which is arranged to control the plurality of adjustment units such that the pressing force on a medium of the plurality of mediums that is in a non-printing state is smaller than the pressing force on a medium of the plurality of mediums that is in a printing state. a holding unit which is arranged to simultaneously hold, so as to be rotatable, a plurality of roll bodies on each of which a medium is wound in a cylindrical shape; a transport device which is arranged to transport the plurality of mediums in the transport direction in a state of being lined up in the width direction and which has a transport unit that is arranged to impart a transport force in a transport direction by coming into contact with the mediums that are unwound from the plurality of roll bodies which are held by the holding unit, a plurality of pressing units which are arranged to press the plurality of mediums toward the transport unit, and a plurality of adjustment units corresponding to the plurality of pressing units and which are each arranged to adjust a pressing force of a respective one of the plurality of pressing units so as to adjust the pressing force applied to the plurality of mediums in each of a plurality of regions in a width direction that intersects with the transport direction; a printing unit which is arranged to perform printing on the plurality of mediums that are transported by the transport device; and a control unit which is arranged to control the plurality of adjustment units such that the pressing force on a medium of the plurality of mediums that is in a non-printing state is smaller than the pressing force on a medium of the plurality of mediums that is in a printing state.
An electrode assembly for an electric storage device comprising a positive electrode, a negative electrode and a separator disposed between the positive electrode and the negative electrode, wherein at least one of the positive electrode and the negative electrode includes: a current collector (5; 9); an active material layer (6; 8) formed on at least one face of the current collector; an undercoat layer (7a; 7b) formed between the current collector and the active material layer and including a conductive additive and an organic binder that evaporates or decomposes when heated to a predetermined temperature or more; wherein the undercoat layer further includes an insulating inorganic agent; and characterized in that the insulating inorganic agent has a particle size of 2.5 times the diameter of the conductive additive or more. a current collector (5; 9); an active material layer (6; 8) formed on at least one face of the current collector; an undercoat layer (7a; 7b) formed between the current collector and the active material layer and including a conductive additive and an organic binder that evaporates or decomposes when heated to a predetermined temperature or more; wherein the undercoat layer further includes an insulating inorganic agent; and characterized in that the insulating inorganic agent has a particle size of 2.5 times the diameter of the conductive additive or more.
A capping chuck for screwing the closure elements on containers, comprising: - a support having a longitudinal axis, - a guide element fixed with respect to the support and having a plurality of guides, and - a plurality of jaws which engage respective guides of said guide element and are movable with respect to the support between a release position and a gripping position, wherein said jaws have respective gripping surfaces for gripping closure elements and respective first cam surfaces, the capping chuck comprising control ring, the capping chuck being characterized in that the control ring is located outer with respect to the jaws, movable relative to the support along said longitudinal axis between a lowered position and a raised position and having a plurality of second cam surfaces cooperating with respective first cam surfaces of said jaws, so that the movement of the control ring from the lowered position to the raised position moves said jaws from the release position to the gripping position, wherein the control ring has an abutment wall arranged to abut on a head surface of a closure element so that, during a movement of the chuck along said longitudinal axis, the closing element moves the control ring from the lowered position to the raised position. - a support having a longitudinal axis, - a guide element fixed with respect to the support and having a plurality of guides, and - a plurality of jaws which engage respective guides of said guide element and are movable with respect to the support between a release position and a gripping position, wherein said jaws have respective gripping surfaces for gripping closure elements and respective first cam surfaces, the capping chuck comprising control ring
Pressure-maintaining device (10, 110, 210) for a resin injecting system (100, 200) comprising - a first chamber (17, 117, 217) that can be connected to pressurising means and that can be connected to vacuum means: - a second chamber (18, 118, 218) that can be connected to a resin injection network of the injection system (100, 200) by means of a resin injection pipe and a resin outlet pipe, said first chamber (17, 117, 217) and said second chamber (18, 118, 218) being arranged so that the one is unable to leak into the other; - a flexible body (19, 219) able to transmit pressurizing from said first chamber (17, 117, 217) to said second chamber (18, 118, 218) so as to apply pressure on said injection network of the injection system; characterised in that it comprises: - a perforated rigid plate (14, 214) able to limit the deformation of said flexible body (19, 219) during said placing in a vacuum of said first chamber (17, 117, 217). - a first chamber (17, 117, 217) that can be connected to pressurising means and that can be connected to vacuum means: - a second chamber (18, 118, 218) that can be connected to a resin injection network of the injection system (100, 200) by means of a resin injection pipe and a resin outlet pipe, said first chamber (17, 117, 217) and said second chamber (18, 118, 218) being arranged so that the one is unable to leak into the other; - a flexible body (19, 219) able to transmit pressurizing from said first chamber (17, 117, 217) to said second chamber (18, 118, 218) so as to apply pressure on said injection network of the injection system; characterised in that it comprises: - a perforated rigid plate (14, 214) able to limit the deformation of said flexible body (19, 219) during said placing in a vacuum of said first chamber (17, 117, 217). - a perforated rigid plate (14, 214) able to limit the deformation of said flexible body (19, 219) during said placing in a vacuum of said first chamber (17, 117, 217).
An amplifier configured to operate at low, middle or high linearity modes, the amplifier comprising: an input of a first low noise amplifier (LNA 410) coupled to an input of a second low noise amplifier (LNA 420) for providing amplification; a first source degeneration inductor coupled to the first low noise amplifier (LNA 410) for providing impedance matching; a -g 3 generation block having an input coupled to an output of the second low noise amplifier (LNA 420) and an output coupled to the output of the first low noise amplifier (LNA 410) for canceling third-order transconductance distortion of the first low noise amplifier (LNA 410); a first switch coupled to the output of the second low noise amplifier (LNA 420) at a first end and to the -g 3 generation block at a second end and aligned in parallel to the -g 3 generation block for operating the amplifier at one of the low, middle or high linearity modes; and a second switch coupled to the output of the second low noise amplifier (LNA 420) at a first end and to a supply at a second end. an input of a first low noise amplifier (LNA 410) coupled to an input of a second low noise amplifier (LNA 420) for providing amplification; a first source degeneration inductor coupled to the first low noise amplifier (LNA 410) for providing impedance matching; a -g 3 generation block having an input coupled to an output of the second low noise amplifier (LNA 420) and an output coupled to the output of the first low noise amplifier (LNA 410) for canceling third-order transconductance distortion of the first low noise amplifier (LNA 410); a first switch coupled to the output of the second low noise amplifier (LNA 420) at a first end and to the -g 3 generation block at a second end and aligned in parallel to the -g 3 generation block for operating the amplifier at one of the low, middle or high linearity modes; and a second switch coupled to the output of the second low noise amplifier (LNA 420) at a first end and to a supply at a second end.
A method comprising: accessing context information associated with a mobile device, wherein the context information is derived from one or more mobile device hardware sensors, the method further comprising: identifying, using the context information, a first inferred context (332a, 332b, 334, 336, 338, 339) of the mobile device for a first time period to create first inferred calendar information; accessing first raw calendar data associated with a user of the mobile device and the first time period, wherein: the raw calendar data includes descriptions of events associated with a particular time; the descriptions of events include labels; and the labels are identifying information for identifying people, places, or activities associated with the particular time; identifying from the first raw calendar data, a first label from a plurality of labels (334b, 352, 354, 356, 357, 358) in the first raw calendar data; matching the first label and the first inferred context by verifying that the first label is consistent with the first inferred context; associating the context information and the first label based on the matching of the first label and the first inferred context; and updating the mobile device based on the association of the context information and the first label and based on the match of the first label and the first inferred context. identifying, using the context information, a first inferred context (332a, 332b, 334, 336, 338, 339) of the mobile device for a first time period to create first inferred calendar information; accessing first raw calendar data associated with a user of the mobile device and the first time period, wherein: the raw calendar data includes descriptions of events associated with a particular time; the descriptions of events include labels; and the labels are identifying information for identifying people, places, or activities associated with the particular time; the raw calendar data includes descriptions of events associated with a particular time; the descriptions of events include labels; and the labels are identifying information for identifying people, places, or activities associated with the particular time; identifying from the first raw calendar data, a first label from a plurality of labels (334b, 352, 354, 356, 357, 358) in the first raw calendar data; matching the first label and the first inferred context by verifying that the first label is consistent with the first inferred context; associating the context information and the first label based on the matching of the first label and the first inferred context; and updating the mobile device based on the association of the context information and the first label and based on the match of the first label and the first inferred context.
A refluxing cleaning composition for use in cleaning chemical manufacturing equipment, consisting of: a. a blend of at least two solvents selected from the group consisting of dipropylene glycol methyl ether, dipropylene glycol dimethyl ether, ethyl lactate, 1-methyl-2-pyrrolidone, propylene glycol n- propyl ether, propylene glycol phenyl ether, ethylene glycol n-butyl ether, dimethyl methylglutarate-dibasic ester and diethylene glycol n-butyl ether; b. optionally, surfactants; c. water; d. optionally, chelants or sequestrants; e. optionally, acid and base buffers; f. optionally, corrosion inhibitors; g. optionally, builders; and h. optionally, anti-redeposition and rinsability agents, wherein the solvents are selected based upon the following criteria: vapor pressure, vapor density, boiling point, specific heat and heat of vaporization. a. a blend of at least two solvents selected from the group consisting of dipropylene glycol methyl ether, dipropylene glycol dimethyl ether, ethyl lactate, 1-methyl-2-pyrrolidone, propylene glycol n- propyl ether, propylene glycol phenyl ether, ethylene glycol n-butyl ether, dimethyl methylglutarate-dibasic ester and diethylene glycol n-butyl ether; b. optionally, surfactants; c. water; d. optionally, chelants or sequestrants; e. optionally, acid and base buffers; f. optionally, corrosion inhibitors; g. optionally, builders; and h. optionally, anti-redeposition and rinsability agents,
A computer-implemented method for estimating a bilirubin level of a neonate, comprising the steps of: - Acquiring a series of bilirubin levels estimated at different time points from a neonate, - Acquiring a plurality of covariates from the neonate, each covariate comprising an information about a neonatal property, - Providing a predefined bilirubin model function, wherein the bilirubin model function is configured to describe a time course of the bilirubin level of the neonate, - Determining a plurality of model parameters of the bilirubin model function, wherein each model parameter is estimated from at least one covariate of the plurality of covariates and an associated population model parameter, - Determining from the acquired series of bilirubin levels and the bilirubin model function with the determined model parameters an expected bilirubin level of the neonate for a time later than a lastly acquired bilirubin level of the series of bilirubin levels, wherein the bilirubin model function is a rate equation relating a time-varying bilirubin production rate Kprod, with a time-varying bilirubin elimination rate Kelim, and particularly a time-varying phototherapy exposure function PT, wherein the bilirubin production rate Kprod, the bilirubin elimination rate Kelim and particularly the phototherapy exposure function PT comprise the plurality of model parameters. - Acquiring a series of bilirubin levels estimated at different time points from a neonate, - Acquiring a plurality of covariates from the neonate, each covariate comprising an information about a neonatal property, - Providing a predefined bilirubin model function, wherein the bilirubin model function is configured to describe a time course of the bilirubin level of the neonate, - Determining a plurality of model parameters of the bilirubin model function, wherein each model parameter is estimated from at least one covariate of the plurality of covariates and an associated population model parameter, - Determining from the acquired series of bilirubin levels and the bilirubin model function with the determined model parameters an expected bilirubin level of the neonate for a time later than a lastly acquired bilirubin level of the series of bilirubin levels,
A system for detecting changes in an electrical property, comprising: a sensing element comprising a transistor having a gate electrode and a semiconductor nanostructure connecting between a source electrode and a drain electrode and being modified by a functional moiety covalently attached thereto; a voltage source connected to said gate electrode; and a circuit for detecting changes in an electrical property of said nanostructure; characterized in that the system comprises a controller configured for controlling a gate voltage applied by said voltage source to said gate electrode such as to reverse a redox reaction occurring when said moiety contacts a redox reactive agent. a sensing element comprising a transistor having a gate electrode and a semiconductor nanostructure connecting between a source electrode and a drain electrode and being modified by a functional moiety covalently attached thereto; a voltage source connected to said gate electrode; and a circuit for detecting changes in an electrical property of said nanostructure; characterized in that the system comprises a controller configured for controlling a gate voltage applied by said voltage source to said gate electrode such as to reverse a redox reaction occurring when said moiety contacts a redox reactive agent.
An electric current transmission cable comprising a non-anodized bare conductor based on aluminum or an aluminum alloy, having a hydrophilic external specific surface intended to be in contact with the atmospheric environment, and an inside volume intended to conduct an electric current, characterized in that: - the external specific surface of the bare conductor has a first roughness parameter, defined as the arithmetic mean deviation, measurable by profilometry, of peaks and valleys in comparison to a predetermined average profile over a reference length or surface, equal to or greater than 1.9 μm, and - the inside volume of the bare conductor has oxygen doping of its aluminum-based or aluminum alloy-based components at a ratio equal to or greater than 20%, to a depth of at least 300 nm with respect to the external specific surface. - the external specific surface of the bare conductor has a first roughness parameter, defined as the arithmetic mean deviation, measurable by profilometry, of peaks and valleys in comparison to a predetermined average profile over a reference length or surface, equal to or greater than 1.9 μm, and - the inside volume of the bare conductor has oxygen doping of its aluminum-based or aluminum alloy-based components at a ratio equal to or greater than 20%, to a depth of at least 300 nm with respect to the external specific surface.
A gaspath component comprising: a platform including a cooling plenum; a plurality of vectored holes (150; 250; 310) connected to the cooling plenum; characterised by at least one retaining feature (152; 320) extending from the platform, wherein the plurality of vectored holes (150; 250; 310) are disposed in said at least one retaining feature (152; 320), the plurality of vectored holes (150; 250; 310) including at least two vectored holes defining converging axis. a platform including a cooling plenum; a plurality of vectored holes (150; 250; 310) connected to the cooling plenum; characterised by at least one retaining feature (152; 320) extending from the platform, wherein the plurality of vectored holes (150; 250; 310) are disposed in said at least one retaining feature (152; 320), the plurality of vectored holes (150; 250; 310) including at least two vectored holes defining converging axis.
A computer implemented interprocess communication method, wherein the method comprises: determining that a data length of the communication data is less than a size of a first memory space; when the data length of the communication data is less than the size of the first memory space, storing communication data of a first process in the first memory space, wherein the communication data is used for data exchange between the first process and a second process, and the first memory space is memory space allocated to the first process for access; allocating virtual memory space to the second process, wherein the virtual memory space is used by the second process to access the communication data; and mapping a physical memory page in the first memory space to the virtual memory space; and when the data length of the communication data is greater than the size of the first memory space, storing the communication data as a data file, wherein the second process accesses the communication data by using metadata of the data file. determining that a data length of the communication data is less than a size of a first memory space; when the data length of the communication data is less than the size of the first memory space, storing communication data of a first process in the first memory space, wherein the communication data is used for data exchange between the first process and a second process, and the first memory space is memory space allocated to the first process for access; allocating virtual memory space to the second process, wherein the virtual memory space is used by the second process to access the communication data; and mapping a physical memory page in the first memory space to the virtual memory space; and when the data length of the communication data is greater than the size of the first memory space, storing the communication data as a data file, wherein the second process accesses the communication data by using metadata of the data file.
A method in a management system, comprising: receiving an indication that an electronic device is at least potentially compromised; queuing a first instruction in a queue to initiate remediation of the electronic device, wherein instructions are prioritized in the queue, wherein instructions of higher priority are moved through the queue more quickly, while instructions of lower priority are moved through the queue less quickly; and transmitting the instruction to the electronic device to initiate remediation of the electronic device; the method being characterised by: receiving an indication that the electronic device is not potentially compromised; and transmitting a second instruction to the electronic device to initiate recovery of the electronic device from the remediation. receiving an indication that an electronic device is at least potentially compromised; queuing a first instruction in a queue to initiate remediation of the electronic device, wherein instructions are prioritized in the queue, wherein instructions of higher priority are moved through the queue more quickly, while instructions of lower priority are moved through the queue less quickly; and transmitting the instruction to the electronic device to initiate remediation of the electronic device; the method being characterised by: receiving an indication that the electronic device is not potentially compromised; and transmitting a second instruction to the electronic device to initiate recovery of the electronic device from the remediation. receiving an indication that the electronic device is not potentially compromised; and transmitting a second instruction to the electronic device to initiate recovery of the electronic device from the remediation.