mhurhangee/patent-ind-claim-en huggingface dataset:
A method comprising: determining , via a processor , a commanded fluid flow rate into or out of a drum (56, 58, and/or 60) of an industrial system , wherein the commanded fluid flow rate comprises a rate of fluid entering the drum (56, 58, and/or 60) of the industrial system , exiting the drum (56, 58, and/or 60) of the industrial system , or a combination thereof; determining , via the processor , a measured flow rate of the fluid; determining , via the processor , a variable multiplier based at least in part on the commanded fluid flow rate and the measured flow rate; and deriving , via the processor , a multiplied flow rate command for the industrial system by applying the variable multiplier to the commanded fluid flow rate. determining , via a processor , a commanded fluid flow rate into or out of a drum (56, 58, and/or 60) of an industrial system , wherein the commanded fluid flow rate comprises a rate of fluid entering the drum (56, 58, and/or 60) of the industrial system , exiting the drum (56, 58, and/or 60) of the industrial system , or a combination thereof; determining , via the processor , a measured flow rate of the fluid; determining , via the processor , a variable multiplier based at least in part on the commanded fluid flow rate and the measured flow rate; and deriving , via the processor , a multiplied flow rate command for the industrial system by applying the variable multiplier to the commanded fluid flow rate.
A data generation device comprising: a generating circuit configured to generate video data according to an Advanced Video Coding, AVC, standard and a second opto-electrical transfer function, OETF, which supports a second range of an input intensity of light; and a storage to store: video usability information, VUI, including a first value indicating a first OETF; and supplemental enhancement information, SEI, including a second value indicating the second OETF, wherein VUI and SEI are included in the video data; wherein the first OETF supports a first range of an input intensity of light and the second range is wider than the first range; the first value is to be referred to by a decoding device that does not support the second OETF, when the decoding device decodes the video data; and the second OETF has compatibility with the first OETF; wherein the first OETF is an OETF defined in one of BT. 709 and BT. 2020; and the SEI is in an IRAP NAL unit or an I-picture; wherein the second value is to be referred to by another decoding device that supports the first OETF and the second OETF, when the other decoding device decodes the video data. a generating circuit configured to generate video data according to an Advanced Video Coding, AVC, standard and a second opto-electrical transfer function, OETF, which supports a second range of an input intensity of light; and a storage to store: video usability information, VUI, including a first value indicating a first OETF; and supplemental enhancement information, SEI, including a second value indicating the second OETF, wherein VUI and SEI are included in the video data; wherein the first OETF supports a first range of an input intensity of light and the second range is wider than the first range; the first value is to be referred to by a decoding device that does not support the second OETF, when the decoding device decodes the video data; and the second OETF has compatibility with the first OETF; wherein the first OETF is an OETF defined in one of BT. 709 and BT. 2020; and the SEI is in an IRAP NAL unit or an I-picture; wherein the second value is to be referred to by another decoding device that supports the first OETF and the second OETF, when the other decoding device decodes the video data. video usability information, VUI, including a first value indicating a first OETF; and supplemental enhancement information, SEI, including a second value indicating the second OETF, wherein VUI and SEI are included in the video data; wherein the first OETF supports a first range of an input intensity of light and the second range is wider than the first range; the first value is to be referred to by a decoding device that does not support the second OETF, when the decoding device decodes the video data; and the second OETF has compatibility with the first OETF; wherein the first OETF is an OETF defined in one of BT. 709 and BT. 2020; and the SEI is in an IRAP NAL unit or an I-picture; wherein the second value is to be referred to by another decoding device that supports the first OETF and the second OETF, when the other decoding device decodes the video data.
A method for manufacturing a custom mouth guard that detects impact forces of a user, comprising: conforming a first layer of material to a model of the user's maxillary region that includes replicated teeth; while the first layer of material is on the model and after the conforming, heating the first layer of material ; forcing a flexible printed circuit board into the heated first layer to force a plurality of components extending away from the flexible printed circuit board to be impressed into the first layer , the flexible printed circuit board including linear and rotational force sensors ; overlaying a second layer of material over the flexible printed circuit board and the first layer ; and conforming the second layer of material to exposed surfaces of the flexible printed circuit board and the first layer to create the custom mouth guard . conforming a first layer of material to a model of the user's maxillary region that includes replicated teeth; while the first layer of material is on the model and after the conforming, heating the first layer of material ; forcing a flexible printed circuit board into the heated first layer to force a plurality of components extending away from the flexible printed circuit board to be impressed into the first layer , the flexible printed circuit board including linear and rotational force sensors ; overlaying a second layer of material over the flexible printed circuit board and the first layer ; and conforming the second layer of material to exposed surfaces of the flexible printed circuit board and the first layer to create the custom mouth guard .
Continuous method for the production of Grignard adducts, in which a flow consisting of an alkyl- or aryl halide and a water-free solvent and a further flow consisting of magnesium chips are fed to a reactor, characterised in that the magnesium chips are activated mechanically in the reactor by friction.
Method for coordinating a vehicle group composed of a number (N) of vehicles (2i, i=1 ,2,.., N), the vehicles of the vehicle group moving (St1) on a roadway at predetermined target distances (dSollj; j=1, 2, ...N-1) from one another and the vehicles communicating with one another wirelessly via V2X communication , the predetermined target distance (dSollj) from the corresponding vehicle being adjusted via a distance control system , the target distances (dSollj) being defined such that the vehicle group is permanently divided (St1a) into a defined number (M) of at least two vehicle sub-groups (1.k, k=1, 2,...,M), so that a guide vehicle sub-group (1.1) is followed by at least one following vehicle sub-group (1.k, k>1), wherein for this purpose - a separate guide vehicle (X.k, k>1) is assigned (St1b) to at least each following vehicle sub-group (1.k, k>1), the guide vehicle (X.k, k>1) of the corresponding following vehicle sub-group (1.k, k>1) leading the corresponding following vehicle sub-group (1.k, k>1) as a first vehicle ; and - a target distance (dSollj) is specified to the guide vehicle (X.k, k>1) of the corresponding following vehicle sub-group (1.k, k>1), which target distance corresponds (St1d) at least to a predefined entry distance (dE) which must always be maintained between the vehicle sub-groups, the entry distance (dE) being defined such that, after the entry distance (dE) has been adjusted as the target distance (dSollj) from a vehicle , driving directly ahead, of the same vehicle group , a gap (R) forms between the corresponding vehicle sub-groups (1.k), so that a vehicle which is ready to cut in and has a vehicle length (L) which does not exceed a predefined maximum length (LMax) can switch into the gap (R) on the roadway of the vehicle group between the at least two vehicle sub-groups (1.k), the target distance (dSollj) that is specified to the guide vehicle (X.k, k>1) of the corresponding following vehicle sub-group (1.k, k>1) being defined under the condition whereby vehicles of different vehicle sub-groups (1.k) can also communicate wirelessly indirectly or directly with one another via the V2X communication after this target distance (dSollj) has been adjusted, in order to coordinate the entire vehicle group . - a separate guide vehicle (X.k, k>1) is assigned (St1b) to at least each following vehicle sub-group (1.k, k>1), the guide vehicle (X.k, k>1) of the corresponding following vehicle sub-group (1.k, k>1) leading the corresponding following vehicle sub-group (1.k, k>1) as a first vehicle ; and - a target distance (dSollj) is specified to the guide vehicle (X.k, k>1) of the corresponding following vehicle sub-group (1.k, k>1), which target distance corresponds (St1d) at least to a predefined entry distance (dE) which must always be maintained between the vehicle sub-groups,
Conveying system for conveying goods along a conveying direction (A) to a discharge point (X), comprising: - a conveying belt , comprising conveying modules and pins , which extend transversely to the conveying direction (A), wherein the pins are arranged an intermediate distance (t) apart in order to couple the conveying modules together so as to form the conveying belt ; - turning wheels , around which the conveying belt is drivable along a closed path; - receiving cavities , in which the conveying belt is free from said conveying modules , wherein the conveying belt is designed to be continuous adjacent to the lateral sides of the receiving cavities ; and - carriers , wherein each carrier is hingeably attached to a said pin , which is arranged on a front side of a said receiving cavity , between a folded-down position, in which this carrier is accommodated in this corresponding receiving cavity , and a folded-up position, in which this carrier is upright with respect to the conveying belt in order to entrain the goods when conveying these goods; characterized in that each carrier has a height (h) greater than a said intermediate distance (t), in that each receiving cavity , viewed in the conveying direction (A), is free from conveying modules and from pins along a length (l) greater than a said intermediate distance (t), and in that each carrier extends entirely within the closed path of the conveying belt , between said turning wheels , at the location of the discharge point (X) and in the folded-down position. - a conveying belt , comprising conveying modules and pins , which extend transversely to the conveying direction (A), wherein the pins are arranged an intermediate distance (t) apart in order to couple the conveying modules together so as to form the conveying belt ; - turning wheels , around which the conveying belt is drivable along a closed path; - receiving cavities , in which the conveying belt is free from said conveying modules , wherein the conveying belt is designed to be continuous adjacent to the lateral sides of the receiving cavities ; and - carriers , wherein each carrier is hingeably attached to a said pin , which is arranged on a front side of a said receiving cavity , between a folded-down position, in which this carrier is accommodated in this corresponding receiving cavity , and a folded-up position, in which this carrier is upright with respect to the conveying belt in order to entrain the goods when conveying these goods;
A total air temperature sensor assembly (200;300), the assembly comprising: a housing accommodating a temperature sensor ; a first airfoil including a leading end and a trailing end , a second airfoil including a leading end and a trailing end , the second airfoil being convex and the first airfoil includes an inner sidewall extending between the leading and trailing ends of the first airfoil and that faces and defines at least part of a curved passageway, the inner sidewall of the first airfoil including a first convex portion, a second convex portion and a concave portion disposed between the first and second convex portions; the leading ends of the first and second airfoils are disposed in front of the housing and the first and second airfoils are disposed in a spaced apart fashion to define the curved passageway extending between the first and second airfoils and leading to the housing, wherein airflow entering the curved passageway between the first airfoil and the second airfoil is directed towards and then past the housing and the trailing end of the second airfoil is disposed in front of and spaced apart from the housing. a housing accommodating a temperature sensor ; a first airfoil including a leading end and a trailing end , a second airfoil including a leading end and a trailing end , the second airfoil being convex and the first airfoil includes an inner sidewall extending between the leading and trailing ends of the first airfoil and that faces and defines at least part of a curved passageway, the inner sidewall of the first airfoil including a first convex portion, a second convex portion and a concave portion disposed between the first and second convex portions; the leading ends of the first and second airfoils are disposed in front of the housing and the first and second airfoils are disposed in a spaced apart fashion to define the curved passageway extending between the first and second airfoils and leading to the housing, wherein airflow entering the curved passageway between the first airfoil and the second airfoil is directed towards and then past the housing and the trailing end of the second airfoil is disposed in front of and spaced apart from the housing.
A lubricating oil composition for a transmission, the composition comprising: (A) a lubricant base oil comprising a mineral base oil and/or a synthetic base oil; and (B) a poly(meth)acrylate having a weight average molecular weight of no more than 25,000, wherein the component (B) is a non-dispersant poly(meth)acrylate, wherein the component (B) is (B2) at least one polyalkyl (meth)acrylate each having a weight average molecular weight of no more than 20,000, wherein a content of the component (B2) is no less than 0.2 mass% on the basis of the total mass of the composition, wherein each of the polyalkyl (meth)acrylate (B2) comprises (B2a) at least one alkyl (meth)acrylate monomer unit having a C8-18 linear chain or branched chain alkyl group, in an amount of no less than 70 mol% on the basis of the total monomer units, wherein each of the polyalkyl (meth)acrylate (B2) further comprises (B2c) a methyl (meth)acrylate monomer unit in an amount of less than 3 mol% on the basis of the total monomer units, and wherein the composition has a kinematic viscosity at 100°C of 2.5 to 4.9 mm 2 /s. (A) a lubricant base oil comprising a mineral base oil and/or a synthetic base oil; and (B) a poly(meth)acrylate having a weight average molecular weight of no more than 25,000, wherein the component (B) is a non-dispersant poly(meth)acrylate, wherein the component (B) is (B2) at least one polyalkyl (meth)acrylate each having a weight average molecular weight of no more than 20,000, wherein a content of the component (B2) is no less than 0.2 mass% on the basis of the total mass of the composition, wherein each of the polyalkyl (meth)acrylate (B2) comprises (B2a) at least one alkyl (meth)acrylate monomer unit having a C8-18 linear chain or branched chain alkyl group, in an amount of no less than 70 mol% on the basis of the total monomer units, wherein each of the polyalkyl (meth)acrylate (B2) further comprises (B2c) a methyl (meth)acrylate monomer unit in an amount of less than 3 mol% on the basis of the total monomer units, and wherein the composition has a kinematic viscosity at 100°C of 2.5 to 4.9 mm 2 /s.
A communication method, comprising: receiving, by a processor , a call setup message from a first communication device that is directed toward a second communication device ; determining, by the processor , that a communication session between the first communication device and the second communication device comprises a call requirement for an entirety of the communication session; establishing, by the processor , the communication session only in response to determining that the call requirement is satisfied at the time of receiving the call setup message; monitoring, by the processor , the entirety of the communication session to ensure that the call requirement is met; disabling, by the processor , the communication session in response to determining that the call requirement is not met during the communication session; receiving a heartbeat signal from at least one of the first communication device and the second communication device ; based on failing to receive the heartbeat signal for at least one predetermined interval of time, determining that the call requirement is not met; and disabling the communication session in response to failing to receive the heartbeat signal and determining that the call requirement is not met. receiving, by a processor , a call setup message from a first communication device that is directed toward a second communication device ; determining, by the processor , that a communication session between the first communication device and the second communication device comprises a call requirement for an entirety of the communication session; establishing, by the processor , the communication session only in response to determining that the call requirement is satisfied at the time of receiving the call setup message; monitoring, by the processor , the entirety of the communication session to ensure that the call requirement is met; disabling, by the processor , the communication session in response to determining that the call requirement is not met during the communication session; receiving a heartbeat signal from at least one of the first communication device and the second communication device ; based on failing to receive the heartbeat signal for at least one predetermined interval of time, determining that the call requirement is not met; and disabling the communication session in response to failing to receive the heartbeat signal and determining that the call requirement is not met.
Greenable wall element , which is mounted at least on a visible side of the wall element comprising interconnected profile bar sections , and has at least one wall component , which is held on at least one of the profile bar sections and has at least one planting opening passing through the wall component , characterized in that at least one of the profile bar sections has on each of two of the longitudinal sides of the profile bar a receiving slot , intended for receiving the at least one wall component , and a guiding slot , intended for receiving at least one fastening element, which fastening element is guided displaceably and fixably in the longitudinal direction of the guiding slot and is held immovably in the guiding slot transversely to the longitudinal direction thereof, in that at least one first profile bar section is provided, having on each of two longitudinal sides of the profile bar arranged at right angles to one another a receiving slot and a guiding slot , in that at least one of the wall components is respectively accommodated in the receiving slots of the at least one first profile bar section and at least one of the fastening elements is respectively provided in the guiding slots of the at least one first profile bar section , and in that the wall element has at least in each of its vertically oriented corner regions first profile bar sections .
A method for a serving cell controller comprising: transmitting (4-1) at least one indication to signal a mobile station to perform a first behaviour in respect of some cells of a given radio access technology (RAT) in terms of at least one of: Notification of Cell Change, NCC, mode; and cell change network control mode; transmitting (4-2) at least one further indication to signal the mobile station to perform a second behaviour in respect of a defined category of cells of the same given RAT in terms of at least one of: NCC mode; and cell change network control mode; wherein the defined category of cells comprises one or more of: a CSG cell, a cell is controlled by a H(e)NB, an uncontrolled cell, a cell to which inbound handover is known not to be supported, and a cell to which inbound handover is known to be supported. transmitting (4-1) at least one indication to signal a mobile station to perform a first behaviour in respect of some cells of a given radio access technology (RAT) in terms of at least one of: Notification of Cell Change, NCC, mode; and cell change network control mode; transmitting (4-2) at least one further indication to signal the mobile station to perform a second behaviour in respect of a defined category of cells of the same given RAT in terms of at least one of: NCC mode; and cell change network control mode; wherein the defined category of cells comprises one or more of: a CSG cell, a cell is controlled by a H(e)NB, an uncontrolled cell, a cell to which inbound handover is known not to be supported, and a cell to which inbound handover is known to be supported. NCC mode; and cell change network control mode; wherein the defined category of cells comprises one or more of: a CSG cell, a cell is controlled by a H(e)NB, an uncontrolled cell, a cell to which inbound handover is known not to be supported, and a cell to which inbound handover is known to be supported.
Evaluation arrangement for a thermal gas sensor having at least one heater and at least one detector , wherein the evaluation arrangement is configured to obtain - information about an amplitude of a detector signal of a first detector , and - information about a first phase difference between a heater signal and the detector signal of the first detector ; and wherein the evaluation arrangement is configured to form a combination signal as an intermediate quantity in dependence on the information about the amplitudes of the detector signal and in dependence on the information about the first phase difference, and wherein the evaluation arrangement is configured to determine information about a gas concentration or information about a thermal diffusivity of a fluid on the basis of the combination signal . wherein the evaluation arrangement is configured to obtain - information about an amplitude of a detector signal of a first detector , and - information about a first phase difference between a heater signal and the detector signal of the first detector ; and - information about an amplitude of a detector signal of a first detector , and - information about a first phase difference between a heater signal and the detector signal of the first detector ; and wherein the evaluation arrangement is configured to form a combination signal as an intermediate quantity in dependence on the information about the amplitudes of the detector signal and in dependence on the information about the first phase difference, and wherein the evaluation arrangement is configured to determine information about a gas concentration or information about a thermal diffusivity of a fluid on the basis of the combination signal .