mhurhangee/patent-ind-claim-en huggingface dataset:
A terminal for receiving or transmitting data comprising: a receiver , which, in operation, receives downlink control information and downlink data; circuitry , which, in operation, determines, based on a control channel element, CCE, number of the downlink control information and an offset that is applied to the CCE number, an uplink control channel resource used for transmission of a response signal for the downlink data; and a transmitter , which, in operation, transmits the response signal using the determined uplink control channel resource, characterized in that a first offset is used as the offset when the terminal is configured in a Machine Type Communication, MTC, coverage enhancement mode; the first offset is different from a second offset, which is used when the terminal is not configured in the MTC coverage enhancement mode; and the first offset is configured for each repetition level, with which the response signal is transmitted repeatedly spanning a plurality of subframes. a receiver , which, in operation, receives downlink control information and downlink data; circuitry , which, in operation, determines, based on a control channel element, CCE, number of the downlink control information and an offset that is applied to the CCE number, an uplink control channel resource used for transmission of a response signal for the downlink data; and a transmitter , which, in operation, transmits the response signal using the determined uplink control channel resource, characterized in that a first offset is used as the offset when the terminal is configured in a Machine Type Communication, MTC, coverage enhancement mode; the first offset is different from a second offset, which is used when the terminal is not configured in the MTC coverage enhancement mode; and the first offset is configured for each repetition level, with which the response signal is transmitted repeatedly spanning a plurality of subframes.
Agricultural attachment with an attachment device which is suitable for coupling the agricultural attachment to a coupler of an agricultural vehicle , with first holders which are suitable for directly coupling the attachment to links of a coupler, embodied as a three-point coupler , of the vehicle , with a second holder which has a frame made from struts which span a V-shaped or triangular contour for a quick-coupling frame of the vehicle , and which holder is suitable for indirectly coupling the attachment to the links of the coupler, embodied as a three-point coupler , of the vehicle , namely via a quick-coupling frame , which is mounted on the links , of the agricultural vehicle , wherein the first holders are designed as tab-like protrusions on the struts of the second holder , characterized in that the first holders protrude in relation to the second holder in the direction of the vehicle , as seen in the direction of travel. with first holders which are suitable for directly coupling the attachment to links of a coupler, embodied as a three-point coupler , of the vehicle , with a second holder which has a frame made from struts which span a V-shaped or triangular contour for a quick-coupling frame of the vehicle , and which holder is suitable for indirectly coupling the attachment to the links of the coupler, embodied as a three-point coupler , of the vehicle , namely via a quick-coupling frame , which is mounted on the links , of the agricultural vehicle , wherein the first holders are designed as tab-like protrusions on the struts of the second holder , characterized in that the first holders protrude in relation to the second holder in the direction of the vehicle , as seen in the direction of travel.
Computer-implemented method for operating an automation system comprising the method steps of: a) providing a learning-based prediction model (M) for the automation system trained by process data (D) comprising context of an automation process, b) receiving information about current context of the automation process, c) verifying context change by comparing the current context to the context of said process data, d) in the case of any context change verifying a concept drift by comparing pre-drift process data and post-drift process data, e) in the case of any concept drift re-training said model (M) with post-drift process data; the method characterized by f) in the case of no context change testing for random concept drift not detected by verifying context change, g) in the case of any random concept drift extend the current context by using data comprising previous context changes, wherein the current context is automatically extended on the basis of the context's influence on estimates of processing times of the automation process, h) operating the automation system in accordance with the extended context of the automation process, i) otherwise operating the automation system in accordance with the current context of the automation process. a) providing a learning-based prediction model (M) for the automation system trained by process data (D) comprising context of an automation process, b) receiving information about current context of the automation process, c) verifying context change by comparing the current context to the context of said process data, d) in the case of any context change verifying a concept drift by comparing pre-drift process data and post-drift process data, e) in the case of any concept drift re-training said model (M) with post-drift process data; the method characterized by f) in the case of no context change testing for random concept drift not detected by verifying context change, g) in the case of any random concept drift extend the current context by using data comprising previous context changes, wherein the current context is automatically extended on the basis of the context's influence on estimates of processing times of the automation process, h) operating the automation system in accordance with the extended context of the automation process, i) otherwise operating the automation system in accordance with the current context of the automation process.
Apparatus for generating a non-thermal atmospheric-pressure plasma comprising a first piezoelectric transformer , a second piezoelectric transformer , wherein there is a gap between the first transformer and the second transformer , and a drive circuit that is configured to apply an input voltage to each of the piezoelectric transformers , characterized in that the input voltage that is applied to the first transformer is phase-shifted through 90° in relation to the input voltage that is applied to the second transformer .
Cannabidiolic acid (CBDA) for use in the treatment of a microbial infection-induced dermatitis.
A method for determining phase adjustment filters for an associated sound generating system comprising at least two audio reproduction channels, where each of said audio reproduction channels has an input signal and at least one loudspeaker located in a listening environment, wherein said method comprises: - estimating (S1), for each of said audio reproduction channels, an acoustic transfer function at each of M ≥ 1 spatial positions, also referred to as measurement points, in said listening environment, based on sound measurements at said spatial positions; and - determining (S2), based on said acoustic transfer functions, phase adjustment filters ( F 1 ( ƒ ) and F 2 ( ƒ )) to be applied, respectively, to said audio reproduction channels, to reduce the inter-loudspeaker differential phase (IDP) between said audio reproduction channels in p listener positions, wherein each listener position is associated with a single point or with a pair of points, selected from the total of M ≥ 1 measurement points, wherein said step (S2) of determining phase adjustment filters ( F 1 ( ƒ ) and F 2 ( ƒ )) comprises: - determining p IDP functions φ 1 ( ƒ ), φ 2 ( ƒ ),..., φ p ( ƒ ) between said audio reproduction channels, in a frequency interval ƒ 1 ≤ ƒ ≤ ƒ 2 , based on information from said acoustic transfer functions at said M spatial positions; - determining an aggregated IDP function φ ( ƒ ) based on said p IDP functions φ 1 ( ƒ ), φ 2 ( ƒ ),..., φ p ( ƒ ); and - computing said phase adjustment filters ( F 1 ( ƒ ) and F 2 ( ƒ )) based on said aggregated IDP function. - estimating (S1), for each of said audio reproduction channels, an acoustic transfer function at each of M ≥ 1 spatial positions, also referred to as measurement points, in said listening environment, based on sound measurements at said spatial positions; and - determining (S2), based on said acoustic transfer functions, phase adjustment filters ( F 1 ( ƒ ) and F 2 ( ƒ )) to be applied, respectively, to said audio reproduction channels, to reduce the inter-loudspeaker differential phase (IDP) between said audio reproduction channels in p listener positions, wherein each listener position is associated with a single point or with a pair of points, selected from the total of M ≥ 1 measurement points, - determining p IDP functions φ 1 ( ƒ ), φ 2 ( ƒ ),..., φ p ( ƒ ) between said audio reproduction channels, in a frequency interval ƒ 1 ≤ ƒ ≤ ƒ 2 , based on information from said acoustic transfer functions at said M spatial positions; - determining an aggregated IDP function φ ( ƒ ) based on said p IDP functions φ 1 ( ƒ ), φ 2 ( ƒ ),..., φ p ( ƒ ); and - computing said phase adjustment filters ( F 1 ( ƒ ) and F 2 ( ƒ )) based on said aggregated IDP function.
A method for enhancing resistance to delamination of a coating layer applied to a substrate having a first operative surface and a second operative surface, said method comprising the following steps: - providing a rigid, monolithic substrate; - forming a plurality of holes on said substrate to define passages from said first operative surface to said second operative surface; and - coating said first operative surface with a first coating material being a fluoropolymer to obtain a first coating layer and coating said second operative surface with a second coating material being a fluoropolymer to obtain a second coating layer , while a portion of said first coating material and/or said second coating material is made to flow through said passages and configure contiguous ties between said first coating layer and said second coating layer; wherein said first and second coating layers independently have a dry film thickness in the range of 200 μm to 1200 μm. - providing a rigid, monolithic substrate; - forming a plurality of holes on said substrate to define passages from said first operative surface to said second operative surface; and - coating said first operative surface with a first coating material being a fluoropolymer to obtain a first coating layer and coating said second operative surface with a second coating material being a fluoropolymer to obtain a second coating layer , while a portion of said first coating material and/or said second coating material is made to flow through said passages and configure contiguous ties between said first coating layer and said second coating layer;
Method of use of a pneumatic material conveying system, such as in a waste conveying system, which comprises a waste station comprising a separating device , in which material to be conveyed is separated from the conveying air, and a more extensive conveying system which comprises: - a main conveying pipe , and - a number of subsystems , which are connected via the main conveying pipe to the waste station , which subsystem comprises: - at least one input point of material, more particularly of waste material, - an accumulator tank , - a conveying pipe , which is connected to the input point and the accumulator tank , and - which pneumatic material conveying system comprises means for achieving a pressure difference in the conveying pipe at least during the conveyance of material, in which method: - material is conveyed from the input point to the accumulator tank of the subsystem , where the material is separated from the conveying air, - the accumulator tank of the subsystem is emptied,and - in connection with the subsystem a local partial-vacuum generating apparatus or a temporary partial-vacuum generator is used to achieve the suction effect needed in material conveyance and/or a partial-vacuum generating apparatus of the more extensive waste conveying system is used to achieve the suction effect needed in material conveyance, characterized in that the pneumatic material conveying system is expanded modularly by means of the subsystems , and that the main conveying pipe is ring-shaped and connected into a circuit such that conveying air is circulated in the main conveying pipe , and that the material is conveyed from the accumulator tank of the subsystem onwards along the main conveying pipe of the more extensive system to the separating device of the waste station , where the material to be conveyed is separated from the conveying air. - a main conveying pipe , and - a number of subsystems , which are connected via the main conveying pipe to the waste station , - at least one input point of material, more particularly of waste material, - an accumulator tank , - a conveying pipe , which is connected to the input point and the accumulator tank , and - which pneumatic material conveying system comprises means for achieving a pressure difference in the conveying pipe at least during the conveyance of material, - material is conveyed from the input point to the accumulator tank of the subsystem , where the material is separated from the conveying air, - the accumulator tank of the subsystem is emptied,and - in connection with the subsystem a local partial-vacuum generating apparatus or a temporary partial-vacuum generator is used to achieve the suction effect needed in material conveyance and/or a partial-vacuum generating apparatus of the more extensive waste conveying system is used to achieve the suction effect needed in material conveyance,
An air sanitation device for a refrigerator , comprising: a housing ; an air channel located in the housing , and comprising an air inlet and an air outlet ; a fan located in the air channel , to force air to enter the air channel from the air inlet , and then be discharged out of the air channel from the air outlet ; and an air detection device comprising a gas sensor fixed to a circuit board , wherein the air channel is configured to enable air to flow along a side of the circuit board to which the gas sensor is fixed, and a direction that an inlet of the fan faces is opposite to a direction in which the gas sensor protrudes from the circuit board, the inlet of the fan is open downward, and the housing comprises an upper wall , a lower wall , and a side wall , characterized in that the side wall comprises an oblique portion inclined downward, the air inlet is located on the oblique portion , and the air detection device is located between the air inlet and the inlet of the fan . a housing ; an air channel located in the housing , and comprising an air inlet and an air outlet ; a fan located in the air channel , to force air to enter the air channel from the air inlet , and then be discharged out of the air channel from the air outlet ; and an air detection device comprising a gas sensor fixed to a circuit board , wherein the air channel is configured to enable air to flow along a side of the circuit board to which the gas sensor is fixed, and a direction that an inlet of the fan faces is opposite to a direction in which the gas sensor protrudes from the circuit board, the inlet of the fan is open downward, and the housing comprises an upper wall , a lower wall , and a side wall ,
Microfluidic droplet-based assay process for analyzing biological cell activity by detection of at least one target analyte contained in one or several droplets, wherein the process comprises the step of creating several assay droplets of a liquid culture medium where an assay droplet contains: - paramagnetic particles ( 22 , 22 '); - detectable markers ; - and, at least one biological cell potentially capable of releasing at least one target analyte ; wherein the paramagnetic particles ( 22 , 22 ') and the detectable markers are able to bind with a target analyte to form a marked and magnetized combination with a target analyte , wherein the process includes storing several assay droplets along a single layer along a horizontal storage plane, wherein the process includes the generation of a magnetic field through the stored assay droplets for spatially arranging the paramagnetic particles inside the stored assay droplets, and wherein the process includes detecting, within a given stored assay droplet, a physical characteristic of the detectable markers contained in the given assay droplet, by optical imaging of the detectable markers, characterized in that the generation of a magnetic field generates a magnetic field such that the paramagnetic particles are attracted towards a lateral and inferior portion of the given stored assay droplet in which they are contained. - paramagnetic particles ( 22 , 22 '); - detectable markers ; - and, at least one biological cell potentially capable of releasing at least one target analyte ; wherein the paramagnetic particles ( 22 , 22 ') and the detectable markers are able to bind with a target analyte to form a marked and magnetized combination with a target analyte ,
A high strength electrical steel sheet or a processed part of the same characterized by containing, by mass%, C: 0.0040% or less, Si: 0.2 to 6.5%, Mn: 0.05 to 3.0%, P: 0.30% or less, S: 0.0030% or less, Al: 2.50% or less, Cu: 0.6 to 8.0%, N: 0.0040% or less, optionally one or more of Nb: 0.02% or less, Ti: 0.010% or less, B: 0.010% or less, Ni: 2.5% or less, and Cr: 10.0% or less, further optionally one or more of Mo, W, Sn, Sb, Mg, Ca, Ce, and Co in a total of 0.5% or less, and a balance of Fe and unavoidable impurities and containing in the steel a metal phase comprising of Cu of a diameter of 0.01 μm or less.
An LED light beam producing luminaire comprising: one or more LEDs adapted to emit light of a plurality of discrete colours; a collimator comprising a plurality of at least three curved sides and configured to collimate and mix the light emitted by the LEDs , characterised in that the collimator is further configured to direct the light to an external focal point which is close to a light exiting end of the collimator ; and an elongated light integrator is configured to receive light from the collimator , the elongated light integrator being a parallel sided light integrator ; wherein the light exiting the elongated light integrator is received in order by a plurality of independently articulatable optical lenses . one or more LEDs adapted to emit light of a plurality of discrete colours; a collimator comprising a plurality of at least three curved sides and configured to collimate and mix the light emitted by the LEDs , characterised in that the collimator is further configured to direct the light to an external focal point which is close to a light exiting end of the collimator ; and an elongated light integrator is configured to receive light from the collimator , the elongated light integrator being a parallel sided light integrator ; wherein the light exiting the elongated light integrator is received in order by a plurality of independently articulatable optical lenses .
An electric pump comprising: a pump unit configured to pump fluid by a rotating operation; a brushless direct-current motor configured to rotationally drive the pump unit ; and a controller configured to control a current to be supplied to the motor , the controller being configured to switch between voltage control and current control, characterized in that the controller is configured to switch between voltage control for controlling the current to be supplied to the motor based on a target voltage and current control for controlling the current to be supplied to the motor based on a target current, and in that the controller is configured to select, as an operation mode, one of a restriction possible mode for performing control by switching between the voltage control and the current control and a non-restriction mode for performing only the voltage control. a pump unit configured to pump fluid by a rotating operation; a brushless direct-current motor configured to rotationally drive the pump unit ; and a controller configured to control a current to be supplied to the motor , the controller being configured to switch between voltage control and current control, characterized in that the controller is configured to switch between voltage control for controlling the current to be supplied to the motor based on a target voltage and current control for controlling the current to be supplied to the motor based on a target current, and in that the controller is configured to select, as an operation mode, one of a restriction possible mode for performing control by switching between the voltage control and the current control and a non-restriction mode for performing only the voltage control. characterized in that the controller is configured to switch between voltage control for controlling the current to be supplied to the motor based on a target voltage and current control for controlling the current to be supplied to the motor based on a target current, and in that the controller is configured to select, as an operation mode, one of a restriction possible mode for performing control by switching between the voltage control and the current control and a non-restriction mode for performing only the voltage control.
A testing device for determining the smoke point of a hydrocarbon, comprising: an apparatus for determining the smoke point conforming to the specifications of an ASTM D1322-19 standard, means for taking a series of digital images of a flame (F); an ambient relative humidity sensor for measuring relative humidity; an ambient temperature sensor for measuring temperature; a computer system linked to the means for taking the series of digital images of a flame (F), linked to the humidity sensor , and linked to the ambient temperature sensor , characterized in that the computer system is programmed to enable digital images taken by the means for taking a series of digital images to be analyzed to measure flame height (L), and for using temperature measured by the ambient temperature sensor in combination with relative humidity measured by the relative humidity sensor to calculate the absolute humidity and to correct the measured flame height (L) as a function of a difference between the calculated absolute humidity and a normalized absolute humidity value to calculate a humidity corrected smoke point. an apparatus for determining the smoke point conforming to the specifications of an ASTM D1322-19 standard, means for taking a series of digital images of a flame (F); an ambient relative humidity sensor for measuring relative humidity; an ambient temperature sensor for measuring temperature; a computer system linked to the means for taking the series of digital images of a flame (F), linked to the humidity sensor , and linked to the ambient temperature sensor , characterized in that the computer system is programmed to enable digital images taken by the means for taking a series of digital images to be analyzed to measure flame height (L), and for using temperature measured by the ambient temperature sensor in combination with relative humidity measured by the relative humidity sensor to calculate the absolute humidity and to correct the measured flame height (L) as a function of a difference between the calculated absolute humidity and a normalized absolute humidity value to calculate a humidity corrected smoke point.