mhurhangee/ep-ind-claims huggingface dataset:
Method for predicting a physical characteristic of vacuum insulation panels of a certain type, the method comprising: measuring a plurality of physical quantities (x1, x2, x3, x4, x5) associated with the vacuum insulation panels at distinct time instants; measuring values of the physical characteristic at the distinct time instants; fitting a parametric regression model to predict the measured values of the physical characteristic at the distinct time instants using the parametric regression model; and executing the parametric regression model to predict the physical characteristic at a future time instant, characterized in that the parametric regression model is one of the following parametric regression models Y = f x β + ε = β 1 x 1 + β 2 x 2 exp − β 3 R x 3 x 5 + β 4 x 4 + ε or Y = g x β + ε = β 1 x 1 + β 2 x 2 exp − β 3 R x 3 x 5 + ε with Y denoting values of the physical characteristic, β 1 - β 4 denoting regression coefficients, x1 - x5 denoting regressors and ε denoting an error, wherein β 1 = c LS, x 1 = LS V, β 2 = c A, x 2 = A V, β 3 = E, x 3 = 1 T − 1 T 0, β 4 = α, x 4 = m t − m 0 m 0, x 5 = t − t 0. wherein LS denotes length of the sealing, A = A Folie denotes surface area, V denotes volume of the kernel, LS V denotes length of sealing per volume, A V denotes surface per volume, 1 T − 1 T 0 denotes transformed temperature, t - t 0 denotes time elapsed, m t − m t 0 m t denotes mass increase. measuring a plurality of physical quantities (x1, x2, x3, x4, x5) associated with the vacuum insulation panels at distinct time instants; measuring values of the physical characteristic at the distinct time instants; fitting a parametric regression model to predict the measured values of the physical characteristic at the distinct time instants using the parametric regression model; and executing the parametric regression model to predict the physical characteristic at a future time instant, characterized in that the parametric regression model is one of the following parametric regression models Y = f x β + ε = β 1 x 1 + β 2 x 2 exp − β 3 R x 3 x 5 + β 4 x 4 + ε or Y = g x β + ε = β 1 x 1 + β 2 x 2 exp − β 3 R x 3 x 5 + ε with Y denoting values of the physical characteristic, β 1 - β 4 denoting regression coefficients, x1 - x5 denoting regressors and ε denoting an error, wherein β 1 = c LS, x 1 = LS V, β 2 = c A, x 2 = A V, β 3 = E, x 3 = 1 T − 1 T 0, β 4 = α, x 4 = m t − m 0 m 0, x 5 = t − t 0. wherein LS denotes length of the sealing, A = A Folie denotes surface area, V denotes volume of the kernel, LS V denotes length of sealing per volume, A V denotes surface per volume, 1 T − 1 T 0 denotes transformed temperature, t - t 0 denotes time elapsed, m t − m t 0 m t denotes mass increase.
Capsule for preparing a beverage or liquid food from a substance, in a centrifugal brewing unit, by passing water through the substance contained in the capsule by using brewing centrifugal forces comprising: an enclosure, opening means which opens under the centrifugal effect to allow the brewed liquid to leave the capsule and which forms at least one radial outlet for the brewed liquid, wherein the outlet is obtained by the centrifugal forces which exert a flexure on at least one deflectable portion of the capsule, characterized in that: the enclosure contains a predetermined dose of substance, and in that: the deflectable portion is an elastic lip acting in closure on a surface of the capsule and the deflectable lip is integral to at least one wall of the capsule. an enclosure, opening means which opens under the centrifugal effect to allow the brewed liquid to leave the capsule and which forms at least one radial outlet for the brewed liquid, wherein the outlet is obtained by the centrifugal forces which exert a flexure on at least one deflectable portion of the capsule, the enclosure contains a predetermined dose of substance, the deflectable portion is an elastic lip acting in closure on a surface of the capsule and the deflectable lip is integral to at least one wall of the capsule.
A method for transmitting a sounding reference signal, SRS, at a user equipment in a wireless communication system, the method comprising: configuring at least one parameter for the SRS by a higher layer; and transmitting, to a base station, at least one of a periodic SRS triggered by the higher layer and an additional SRS triggered by an instruction received from the base station, based on the at least one parameter, wherein if both transmission of the periodic SRS and transmission of the additional SRS are to occur in a same subframe, only the additional SRS is transmitted to the base station, and the periodic SRS is dropped. configuring at least one parameter for the SRS by a higher layer; and transmitting, to a base station, at least one of a periodic SRS triggered by the higher layer and an additional SRS triggered by an instruction received from the base station, based on the at least one parameter, wherein if both transmission of the periodic SRS and transmission of the additional SRS are to occur in a same subframe, only the additional SRS is transmitted to the base station, and the periodic SRS is dropped.
Communication method for communicating data between a transmitting smart object and a server, said method comprising: - a collection step for collecting data, by means of a transmitting smart object, at least part of said collected data being intended to be communicated to a server, - a comparison step for comparing, by means of a processing module of the transmitting smart object, data previously communicated from the transmitting smart object to the server with the collected data in order to select new data to be communicated to the server, and - a transmission step for transmitting, by means of a communication module of the transmitting smart object, a communication request message to the server containing the new data to be communicated to the server; characterized in that the comparison step comprises a step of identifying data that have changed since the last exchange, said new data to be communicated being said data that have changed. - a collection step for collecting data, by means of a transmitting smart object, at least part of said collected data being intended to be communicated to a server, - a comparison step for comparing, by means of a processing module of the transmitting smart object, data previously communicated from the transmitting smart object to the server with the collected data in order to select new data to be communicated to the server, and - a transmission step for transmitting, by means of a communication module of the transmitting smart object, a communication request message to the server containing the new data to be communicated to the server;
Method for installing a cell stack of battery cells in a housing of a battery module, wherein each cell stack has an outer side surface which, after the installation process, rests against a respective inner housing surface of the housing, and, during the installation process, the cell stack and/or the housing is moved transversely to the stacking direction in a defined installation direction, wherein at least one sliding element (141, 142) - preferably formed by at least one film - is arranged on each outer side surface of the cell stack in a first step prior to the installation process, wherein at least one end (141A, 141B, 142A, 142B) of the sliding element (141, 142) projects beyond the respective outer side surface on at least one installation side of the cell stack, in a further step the housing and the cell stack are moved relative to one another in the installation direction such that first the at least one end (141A, 141B, 142A, 142B) of the at least one sliding element (141, 142) is guided into the housing or the housing is guided over the at least one end (141A, 141B, 142A, 142B) of the sliding element (141, 142), and then, in a further step, the cell stack of battery cells arranged in a row - preferably without pretension - together with the at least one sliding element (141, 142) is pushed into the housing or the housing is pushed over the cell stack of battery cells arranged in a row - preferably without pretension - together with the at least one sliding element (141, 142), wherein the inner housing surface and an outer sliding surface of the at least one sliding element (141, 142) facing away from the cell stack slides relatively against one another until the cell stack has reached its predetermined position in the housing, characterised in that at least one gripping element (161, 162) is provided, which is guided through the housing in preparation for the installation process, wherein the at least one gripping element (161, 162) is in engagement with the at least one end (141A, 141B, 142A, 142B) of the sliding element (141, 142) during the sliding of the cell stack into the housing.
A recombinant DNA molecule comprising a mts-siRNA target element consisting of a sequence selected from the group consisting of SEQ ID NOs: 1, 2, and complements thereof wherein the mts-siRNA target element is operably linked to a heterologous polynucleotide molecule capable of being transcribed into an RNA molecule.
A system comprising a probe and a test sample, said probe being adapted for testing electrical properties of said test sample, said probe comprising: a body having a probe arm defining a proximal and an opposite distal end, said probe arm extending from said body at said proximal end of said probe arm, a first axis defined by said proximal and said distal end, said probe arm having two linear parts, connected so as to define a first angle between 55 and 145 degrees, said probe arm extend from the body in a second angle between 0 and 180 degrees, said probe arm extends freely from the body allowing flexible movement of said probe arm along said first axis and along a second axis perpendicularly to said first axis and along a third axis orthogonal to a plane defined by said first axis and second axis, wherein said probe arm defines spring constants in the direction of said first, second and third axis, when these spring constants are projected onto a plane defined by the surface of the test sample, said plane extending in mutually orthogonal x- and y-directions, and a z-direction is defined orthogonally to said plane, the projected spring constants having an in-plane value Cxy, and a value Cz in the z-direction, the Cxy and Cz values having a ratio Cxy:Cz between 1:1 to 1:20, such a 1:2 to 1:15, such as 1:3 to 1:10, such as 1:4 to 1:6, such as 1:1 to 1:2, such as 1:2 to 1:3, such as 1:3 to 1:4, such as 1:4 to 1:5, such as 1:5 to 1:8, such as 1:8 to 1:10, such as 1:10 to 1:15, such as 1:15 to 1:20. a body having a probe arm defining a proximal and an opposite distal end, said probe arm extending from said body at said proximal end of said probe arm, a first axis defined by said proximal and said distal end, said probe arm having two linear parts, connected so as to define a first angle between 55 and 145 degrees, said probe arm extend from the body in a second angle between 0 and 180 degrees, said probe arm extends freely from the body allowing flexible movement of said probe arm along said first axis and along a second axis perpendicularly to said first axis and along a third axis orthogonal to a plane defined by said first axis and second axis, wherein said probe arm defines spring constants in the direction of said first, second and third axis, when these spring constants are projected onto a plane defined by the surface of the test sample, said plane extending in mutually orthogonal x- and y-directions, and a z-direction is defined orthogonally to said plane, the projected spring constants having an in-plane value Cxy, and a value Cz in the z-direction, the Cxy and Cz values having a ratio Cxy:Cz between 1:1 to 1:20, such a 1:2 to 1:15, such as 1:3 to 1:10, such as 1:4 to 1:6, such as 1:1 to 1:2, such as 1:2 to 1:3, such as 1:3 to 1:4, such as 1:4 to 1:5, such as 1:5 to 1:8, such as 1:8 to 1:10, such as 1:10 to 1:15, such as 1:15 to 1:20.
A method for detecting deterioration in an engine component comprising: monitoring an engine control unit during engine startup for the execution of a command associated with an occurrence of a fuel enable event during the engine startup; monitoring speed, N2, and measured gas temperature, MGT, of the engine for another event during the engine startup; recording an engine performance parameter value associated with the fuel enable event at the time the command is executed, wherein the recorded engine parameter value associated with the fuel enable event include time at the fuel enable event and a derivative time series of N2, dN2/dt, at the fuel enable event; recording the respective engine performance parameter values of N2 and MGT associated with the other event when the other event occurs, wherein the event and the another event comprise at least a partial set of defined events; adjusting the recorded engine parameter time series for ambient temperature, T1; comparing the recorded engine parameter value with a baseline engine parameter value indicating a normal event; determining if the recorded engine parameter value is different than the baseline engine parameter value within a predefined standard; and if the recorded engine parameter value is different than the baseline engine parameter value then generating an anomaly indicator that indicates an anomaly has occurred during the engine startup. monitoring an engine control unit during engine startup for the execution of a command associated with an occurrence of a fuel enable event during the engine startup; monitoring speed, N2, and measured gas temperature, MGT, of the engine for another event during the engine startup; recording an engine performance parameter value associated with the fuel enable event at the time the command is executed, wherein the recorded engine parameter value associated with the fuel enable event include time at the fuel enable event and a derivative time series of N2, dN2/dt, at the fuel enable event; recording the respective engine performance parameter values of N2 and MGT associated with the other event when the other event occurs, wherein the event and the another event comprise at least a partial set of defined events; adjusting the recorded engine parameter time series for ambient temperature, T1; comparing the recorded engine parameter value with a baseline engine parameter value indicating a normal event; determining if the recorded engine parameter value is different than the baseline engine parameter value within a predefined standard; and if the recorded engine parameter value is different than the baseline engine parameter value then generating an anomaly indicator that indicates an anomaly has occurred during the engine startup.
A concealed tear-resistant hanging-bracket group with precise depth adjustment for the wall assembly of a wall cupboard, comprising a plate element, provided with a plurality of fixing pins (12,12',12"), which can be coupled in holes formed on a shoulder of a wall cupboard, and a hooking element of said hanging bracket with a supporting element fixed to the wall adjustable in depth and height and provided with an upper hook-shaped portion, horizontal and vertical movement means (16,17) of said hooking element also being provided with respect to said plate element, wherein it is also provided that said horizontal movement means comprise a threaded hole for a grub screw for adjustment in depth and that guiding means for a screwdriver are associated with said movement means, characterized in that said threaded hole is formed in a deep-drawn protrusion (19 obtained by deep-drawing in said plate and in that said guiding means for a screwdriver comprise a moulded guiding element positioned by means of riveting in a pass-through opening of said plate, wherein said guiding element is positioned beneath said protrusion and above supports of said vertical movement means.
A method for inspecting cargoes in a container, comprising: acquiring an x-ray transmission image of the inspected cargoes; processing (S62, S63) the x-ray transmission image to acquire an interested region; extracting features from the interested region which comprises extracting description information of a stack mode of the inspected cargoes from the interested region; determining cargo information of the inspected cargoes according to the extracted features, wherein the cargo information comprises the stack mode of the cargoes; determining a probability of the stack mode of the cargoes in the interested region of the x-ray transmission image based on the description information; and providing a proposed treatment suggestion of the cargoes based on the determined cargo information and at least a part of information in a manifest, which comprises determining a consistency probability by multiplying the probability of a type of cargoes determined based on a real stack mode from the manifest and the conditional probability of the real stack mode based on a predicted one from the x-ray transmission image, and in a case that the consistency probability is lower than a predetermined value, judging that the cargoes are inconsistent with the cargoes in the manifest. acquiring an x-ray transmission image of the inspected cargoes; processing (S62, S63) the x-ray transmission image to acquire an interested region; extracting features from the interested region which comprises extracting description information of a stack mode of the inspected cargoes from the interested region; determining cargo information of the inspected cargoes according to the extracted features, wherein the cargo information comprises the stack mode of the cargoes; determining a probability of the stack mode of the cargoes in the interested region of the x-ray transmission image based on the description information; and providing a proposed treatment suggestion of the cargoes based on the determined cargo information and at least a part of information in a manifest, which comprises determining a consistency probability by multiplying the probability of a type of cargoes determined based on a real stack mode from the manifest and the conditional probability of the real stack mode based on a predicted one from the x-ray transmission image, and in a case that the consistency probability is lower than a predetermined value, judging that the cargoes are inconsistent with the cargoes in the manifest.
A microscopy method for imaging a specimen comprising two alignment marks (60, 62) along a desired x'-direction of the specimen, the desired x'-direction defined by the alignment marks (60, 62) of the specimen, the specimen being placed on an XY translation stage and movable by the XY translation stage so as to have portion thereof placed within the field of view of an image sensor, wherein the XY translation stage is movable in an x-direction and a y-direction to move the specimen relative to the image sensor, the image sensor having a multitude of pixels arranged to define pixel rows and pixel columns, the desired x'-direction of the specimen being angularly offset from the x-direction of the XY translation stage so as to define a slope and angle of offset relative thereto, the image sensor viewing only a discrete segment of the specimen at a time, the method comprising the steps of: rotating the image sensor such that the pixel rows are substantially parallel with the desired x'-direction of the specimen, without rotating the XY translation stage; determining the angle of offset of the desired x'-direction as compared to the x-direction of the XY translation stage; establishing a first position for the specimen relative to the image sensor as rotated in said step of rotating, said first position placing at least a portion of the specimen within the field of view of the image sensor; and, after said step of determining and said step of establishing, moving the specimen with the XY translation stage to a second position along the desired x'-direction by moving the XY translation stage in the x-direction, wherein the second position places at least a second portion of the specimen within the field of view of the image sensor, and the second position is not substantially shifted in a y'-direction of the specimen, the y'-direction being orthogonal to the x'-direction of the specimen, wherein said step of moving is based upon the angle of offset determined in said step of determining. rotating the image sensor such that the pixel rows are substantially parallel with the desired x'-direction of the specimen, without rotating the XY translation stage; determining the angle of offset of the desired x'-direction as compared to the x-direction of the XY translation stage; establishing a first position for the specimen relative to the image sensor as rotated in said step of rotating, said first position placing at least a portion of the specimen within the field of view of the image sensor; and, after said step of determining and said step of establishing, moving the specimen with the XY translation stage to a second position along the desired x'-direction by moving the XY translation stage in the x-direction, wherein the second position places at least a second portion of the specimen within the field of view of the image sensor, and the second position is not substantially shifted in a y'-direction of the specimen, the y'-direction being orthogonal to the x'-direction of the specimen, wherein said step of moving is based upon the angle of offset determined in said step of determining.
A user equipment configured for blind decoding DCI from an EPDCCH, comprising: a processor configured to: attempt one or more times to decode the DCI from enhanced control channel elements, ECCEs, of the EPDCCH from PRB region candidates in a PRB set until the DCI is successfully decoded; characterized in that the processor is further configured to: attempt decoding the DCI using a selected set of enhanced resource element group, EREG, index maps for the ECCE, wherein each EREG index map is configured for a different aggregation level (AL1, AL2,..., AL4); decode the DCI with an EREG index map associated with a same aggregation level (AL1, AL2,..., AL4) used to encode the DCI; and fail to decode the DCI when an assumed aggregation level (AL1, AL2,..., AL4) differs from an encoded aggregation level. a processor configured to: attempt one or more times to decode the DCI from enhanced control channel elements, ECCEs, of the EPDCCH from PRB region candidates in a PRB set until the DCI is successfully decoded; characterized in that the processor is further configured to: attempt decoding the DCI using a selected set of enhanced resource element group, EREG, index maps for the ECCE, wherein each EREG index map is configured for a different aggregation level (AL1, AL2,..., AL4); decode the DCI with an EREG index map associated with a same aggregation level (AL1, AL2,..., AL4) used to encode the DCI; and fail to decode the DCI when an assumed aggregation level (AL1, AL2,..., AL4) differs from an encoded aggregation level. attempt decoding the DCI using a selected set of enhanced resource element group, EREG, index maps for the ECCE, wherein each EREG index map is configured for a different aggregation level (AL1, AL2,..., AL4); decode the DCI with an EREG index map associated with a same aggregation level (AL1, AL2,..., AL4) used to encode the DCI; and fail to decode the DCI when an assumed aggregation level (AL1, AL2,..., AL4) differs from an encoded aggregation level.