mhurhangee/patent-ind-claim-en huggingface dataset:
A method of controlling a manufacturing system using multivariate time series, the method comprising: recording data from one or more devices in the manufacturing system; storing the recorded data in a data storage as a plurality of time series, wherein each time series has a first recorded value corresponding to a first time and a final recorded value corresponding to an end of the time series; interpolating, within a first time window, missing values in the plurality of time series using a Bayesian model, wherein the missing values fall between the first and end time of the respective time series; storing the interpolated values as prediction data in a prediction storage, wherein the interpolated values include the uncertainty of each interpolated value; loading the recorded data that fall within a second time window from the data storage; loading prediction data from the prediction storage that fall within the second time window and for which no recorded data are available; optimizing the parameters of the Bayesian model using the loaded recorded data and the prediction data; predicting, using the Bayesian model, values for each of the time series for which loaded recorded and prediction data are not available; storing the predicted values as prediction data in the prediction storage, wherein the prediction values include the uncertainty of each prediction value; and adjusting one or more of the devices that generate the recorded data based on the prediction data within the second time window. recording data from one or more devices in the manufacturing system; storing the recorded data in a data storage as a plurality of time series, wherein each time series has a first recorded value corresponding to a first time and a final recorded value corresponding to an end of the time series; interpolating, within a first time window, missing values in the plurality of time series using a Bayesian model, wherein the missing values fall between the first and end time of the respective time series; storing the interpolated values as prediction data in a prediction storage, wherein the interpolated values include the uncertainty of each interpolated value; loading the recorded data that fall within a second time window from the data storage; loading prediction data from the prediction storage that fall within the second time window and for which no recorded data are available; optimizing the parameters of the Bayesian model using the loaded recorded data and the prediction data; predicting, using the Bayesian model, values for each of the time series for which loaded recorded and prediction data are not available; storing the predicted values as prediction data in the prediction storage, wherein the prediction values include the uncertainty of each prediction value; and adjusting one or more of the devices that generate the recorded data based on the prediction data within the second time window.
A bicycle foldable stem , for enabling instantaneous folding down of the handlebar along the bicycle and optionally ergonomically adjustable, where the stem comprises a stem body secured in a hyperstatic manner by an optionally quick-release tightening means to a steering pivot , said body directly or indirectly supports at least one rotation bearing on which a stem arm can oscillate whenever required and when necessary; said bearing being positioned according to a folding axis of the stem that is perfectly distinct from the axis of the steering pivot while remaining parallel or nearly parallel to it, in other words almost vertical in a normal use position of the bicycle; characterized in that the body is provided with a collar in its front part that tightens a left kernel coaxial with said collar by means of tightening screws , this left kernel supports a locking means , these tightening screws allow releasing the tightness of said collar and therefore inclining the stem arm whenever required; coaxial with the collar of the body and therefore with the left kernel , a right kernel , located at the other side of the collar with respect to the left kernel , acts as a support for the screws that form the rotation bearings of the stem arm , which clearly represents the concept of folding the stem . characterized in that the body is provided with a collar in its front part that tightens a left kernel coaxial with said collar by means of tightening screws , this left kernel supports a locking means , these tightening screws allow releasing the tightness of said collar and therefore inclining the stem arm whenever required; coaxial with the collar of the body and therefore with the left kernel , a right kernel , located at the other side of the collar with respect to the left kernel , acts as a support for the screws that form the rotation bearings of the stem arm , which clearly represents the concept of folding the stem .
A vehicle air-conditioning system outlet unit comprising at least one duct surrounded by a wall , and an electrode connected to a voltage source, characterized in that the electrode comprises at least one angled portion protruding into the at least one duct for ionization of the air flowing through the at least one duct , wherein the at least one angled portion includes a tip freely terminating in the at least one duct and an end portion terminating with the tip , wherein the tip points in the flow direction (S), wherein the electrode includes a mounting portion that is provided in the region of the wall , and the portion , protruding into the at least one duct , of the at least one angled portion extends freely in the at least one duct .
A torso harness, comprising: a first chest panel; a first back panel; and a self-adjusting cummerbund connecting the first chest panel and the first back panel, wherein, the self-adjusting cummerbund includes a tensioning mechanism configured to allow the cummerbund to extend and retract, and the tensioning mechanism comprises a sliding portion , a continuous patterned length ofmaterial that is folded at least partially over itself and the sliding portion , and an elastic member that is attached to the sliding portion and the length of material. a first back panel; and a self-adjusting cummerbund connecting the first chest panel and the first back panel, wherein, the self-adjusting cummerbund includes a tensioning mechanism configured to allow the cummerbund to extend and retract, and the tensioning mechanism comprises a sliding portion , a continuous patterned length ofmaterial that is folded at least partially over itself and the sliding portion , and an elastic member that is attached to the sliding portion and the length of material.
A device , which is adapted to be connected with a blockchain network , comprising: a receiving module , adapted to receive, from the blockchain network , a first blockchain comprising a plurality of first data blocks (5a-5d), wherein chaining of the first blockchain is based on a first hash-function encryption mechanism, a transformation module , adapted to transform at least two first data blocks (5a-5d) of the first blockchain into a single blockchain data block , wherein the block chain data block includes the at least two first data blocks (5a-5d) from the first block chain which are chained based on the first hash-function encryption mechanism, and a request module , adapted to request, at the blockchain network , chaining of the single blockchain data block with a second blockchain , wherein chaining of the second blockchain is based on a second hash-function encryption mechanism different from the first hash-function encryption mechanism. a receiving module , adapted to receive, from the blockchain network , a first blockchain comprising a plurality of first data blocks (5a-5d), wherein chaining of the first blockchain is based on a first hash-function encryption mechanism, a transformation module , adapted to transform at least two first data blocks (5a-5d) of the first blockchain into a single blockchain data block , wherein the block chain data block includes the at least two first data blocks (5a-5d) from the first block chain which are chained based on the first hash-function encryption mechanism, and a request module , adapted to request, at the blockchain network , chaining of the single blockchain data block with a second blockchain , wherein chaining of the second blockchain is based on a second hash-function encryption mechanism different from the first hash-function encryption mechanism.
A method of recognizing image content, comprising: applying a neural network to the image, said neural network being pre-trained for estimating an image content according to a specific alphabet and comprising: an input layer for receiving the image, a plurality of hidden layers for processing the image, and an output layer for generating output pertaining to an estimated image content based on outputs of said hidden layers; applying to an output of at least one of said hidden layers, a neural network branch having an output layer for generating output pertaining to an estimated error level of said estimate; and generating a displayed combined output comprising the estimated image content and the estimated error level; wherein said neural network branch is trained based on a difference between an output generated at said output layer of said pre-trained neural network and a ground truth. applying a neural network to the image, said neural network being pre-trained for estimating an image content according to a specific alphabet and comprising: an input layer for receiving the image, a plurality of hidden layers for processing the image, and an output layer for generating output pertaining to an estimated image content based on outputs of said hidden layers; applying to an output of at least one of said hidden layers, a neural network branch having an output layer for generating output pertaining to an estimated error level of said estimate; and generating a displayed combined output comprising the estimated image content and the estimated error level; wherein said neural network branch is trained based on a difference between an output generated at said output layer of said pre-trained neural network and a ground truth.
A component assembly comprising a component , in particular a sheet metal part, and an element formed as an alignment element attached to the component, the element having a head part , a component contact surface provided at one end face of the head part and a collar arranged inside the component contact surface and projecting away from it, the collar having a cross-sectional shape which is not circular, characterized in that the collar is inserted with clearance in an aperture of the component shaped complementary to the cross-sectional shape, in that the collar has outer surfaces which converge in the direction towards said end face of the head part and with respect to the central longitudinal axis of the element and form an acute angle (α) with the latter, in that the marginal region of the aperture of the component adjacent to the component contact surface extends into recesses formed between the collar and the end face of the head part but does not extend to the base of the recesses , with a free space arising which ensures a lateral displaceability of the element relative to the component , and in that an axial separation of the element from the component is prevented by material overlap of the component material with the collar within the recesses .
A wedge connector system for connecting first and second elongate electrical conductors, the wedge connector system comprising: an electrically conductive C-shaped sleeve member defining a sleeve cavity and opposed first and second sleeve channels on either side of the sleeve cavity; a wedge member including a wedge body having first and second opposed wedge side walls; and an insert member formed of metal and configured to be selectively mounted in the first sleeve channel and defining an insert member channel to receive the first conductor when the insert member is mounted in the first sleeve channel ; wherein the sleeve member and the wedge member are configured to capture the first and second conductors such that: the first conductor is received in the insert member channel and captured between the sleeve member and the first wedge side wall; and the second conductor is captured between the sleeve member and the second wedge side wall, characterised in that the insert member includes axially extending relief channels located on laterally opposed sides of the insert member channel ; and the relief channels are configured to receive outer edge portions of the wedge member . an electrically conductive C-shaped sleeve member defining a sleeve cavity and opposed first and second sleeve channels on either side of the sleeve cavity; a wedge member including a wedge body having first and second opposed wedge side walls; and an insert member formed of metal and configured to be selectively mounted in the first sleeve channel and defining an insert member channel to receive the first conductor when the insert member is mounted in the first sleeve channel ; wherein the sleeve member and the wedge member are configured to capture the first and second conductors such that: the first conductor is received in the insert member channel and captured between the sleeve member and the first wedge side wall; and the second conductor is captured between the sleeve member and the second wedge side wall, characterised in that the insert member includes axially extending relief channels located on laterally opposed sides of the insert member channel ; and the relief channels are configured to receive outer edge portions of the wedge member .
Treatment device for grey water for a rail vehicle, having a grey water container , a grey water inflow , an outflow for filtered grey water, and a filter between the grey water inflow and the outflow for filtered grey water, characterized in that the grey water container has at least one cleaning opening which is able to be closed off from the outside and which serves for manual maintenance of the grey water container and which is arranged on the base side.
Method for controlling the operation of an automatic driving assistance system of a motor vehicle, which is designed for independent vehicle guidance, comprising: outputting at least one driving control takeover request to a driver in the case of an occurrence of at least one driving takeover condition, which brings about deactivation of the driving assistance system when driving control is taken over by the driver; when the driving control is not taken over by the driver: replanning an original route with an original destination to a stopping point which can be approached in an automated manner, wherein the stopping point constitutes an optimum stopping point, determined according to at least one optimality criterion, in the context of the present position of the motor vehicle with respect to the original destination, characterized in that the replanning of the original route is carried out in such a way that the optimum stopping point has a shortest or fastest route to the original destination which cannot be travelled along in an automated fashion. outputting at least one driving control takeover request to a driver in the case of an occurrence of at least one driving takeover condition, which brings about deactivation of the driving assistance system when driving control is taken over by the driver; when the driving control is not taken over by the driver: replanning an original route with an original destination to a stopping point which can be approached in an automated manner, wherein the stopping point constitutes an optimum stopping point, determined according to at least one optimality criterion, in the context of the present position of the motor vehicle with respect to the original destination, characterized in that the replanning of the original route is carried out in such a way that the optimum stopping point has a shortest or fastest route to the original destination which cannot be travelled along in an automated fashion.
A halogen-free flame retardant package comprising, Inorganic hypophosphite: 6-95 parts by weight; Expandable graphite: 1-20 parts by weight; Melamine or derivatives thereof: 0-65 parts by weight; Organic phosphorus-based flame retardants: 5-45 parts by weight.
A single chain antibody construct comprising: • a first domain which binds to PSMA, • a second domain which binds to an extracellular epitope of the human and the Macaca CD3ε chain; and • a third domain which comprises two polypeptide monomers, each comprising a hinge, a CH2 domain and a CH3 domain, wherein said two polypeptide monomers are fused to each other via a peptide linker, and wherein said third domain consists in an amino to carboxyl order of: hinge-CH2-CH3-linker-hinge-CH2-CH3. • a first domain which binds to PSMA, • a second domain which binds to an extracellular epitope of the human and the Macaca CD3ε chain; and • a third domain which comprises two polypeptide monomers, each comprising a hinge, a CH2 domain and a CH3 domain, wherein said two polypeptide monomers are fused to each other via a peptide linker, and wherein said third domain consists in an amino to carboxyl order of: hinge-CH2-CH3-linker-hinge-CH2-CH3.
Method for steering vector selection in a receiver for receiving a radio signal, the receiver comprising at least - a number, N R , of antennas arranged in a two-dimensional antenna array having a number, N X , of columns and a number, N Y , of rows , wherein n x is a column index n x = 1, ..., N X and n y is a row index n y = 1, ..., N y ; and - a number, N RF , of signal processing paths for processing a multitude of receive signals r n x , n y , wherein N RF < N R , the method comprising at least the following steps: A) receiving a receive signal r n x ,n y at each respective antenna ; B) for one single row of the two-dimensional antenna array , determining a number, N U , of weighted u -axis array signals g ( w ( u )), each weighted u -axis array signal g ( w ( u )) reflecting all receive signals r n x ,n y of the said one single row processed by a steering vector w ( u ), wherein u = 1, ..., N U is an index for the steering vector w ( u ); C) selecting a number of N U ′ < N U N U weighted u -axis array signals g ( w ( u )), the said N U ′ selected weighted u-axis array signals g ( w ( û )) having the N U ′ largest values of | g ( w ( u ))|; and D) based on the selected weighted u -axis array signals g ( w ( û )) , determining at least a number, N RF , of steering vectors w ( ũ, ṽ ) for data transmission, each steering vector indexed by a pair of spatial frequency indices ( ũ , ṽ ) . - a number, N R , of antennas arranged in a two-dimensional antenna array having a number, N X , of columns and a number, N Y , of rows , wherein n x is a column index n x = 1, ..., N X and n y is a row index n y = 1, ..., N y ; and - a number, N RF , of signal processing paths for processing a multitude of receive signals r n x , n y , wherein N RF < N R , A) receiving a receive signal r n x ,n y at each respective antenna ; B) for one single row of the two-dimensional antenna array , determining a number, N U , of weighted u -axis array signals g ( w ( u )), each weighted u -axis array signal g ( w ( u )) reflecting all receive signals r n x ,n y of the said one single row processed by a steering vector w ( u ), wherein u = 1, ..., N U is an index for the steering vector w ( u ); C) selecting a number of N U ′ < N U N U weighted u -axis array signals g ( w ( u )), the said N U ′ selected weighted u-axis array signals g ( w ( û )) having the N U ′ largest values of | g ( w ( u ))|; and D) based on the selected weighted u -axis array signals g ( w ( û )) , determining at least a number, N RF , of steering vectors w ( ũ, ṽ ) for data transmission, each steering vector indexed by a pair of spatial frequency indices ( ũ , ṽ ) .
Battery support frame for an electrical vehicle with a longitudinal profile and with a transverse profile , wherein the support frame has at least one support frame corner forming an inside angle, wherein, between longitudinal profile and transverse profile , a corner element is arranged to compensate for tolerances, by which corner element the longitudinal profile and the transverse profile are connected together, characterised in that either - the longitudinal profile or the transverse profile is connected by the corner element in an actual arrangement not corresponding to the target arrangement, wherein the connecting face of the corner element intended to connect the corner element to the respectively other profile of the target direction is aligned correspondingly, or that - the longitudinal profile or the transverse profile is connected to the corner element in the target arrangement wherein the connecting face provided to connect the corner element to the respectively other profile is reworked by removing the misalignment of this connecting face. - the longitudinal profile or the transverse profile is connected by the corner element in an actual arrangement not corresponding to the target arrangement, wherein the connecting face of the corner element intended to connect the corner element to the respectively other profile of the target direction is aligned correspondingly, or that - the longitudinal profile or the transverse profile is connected to the corner element in the target arrangement wherein the connecting face provided to connect the corner element to the respectively other profile is reworked by removing the misalignment of this connecting face.
A method of performing an acoustophoretic operation, comprising the steps of: a. providing an acoustophoretic chip comprising a polymer substrate in which a microfluidic flow channel is positioned, b. providing at least two ultrasound transducers in acoustic contact with one surface of the substrate, c. actuating the at least two ultrasound transducers at a frequency f that corresponds to an acoustic resonance peak of the substrate including the microfluidic flow channel filled with a liquid suspension , and d. providing the liquid suspension in the flow channel to perform the acoustophoretic operation on the liquid suspension. a. providing an acoustophoretic chip comprising a polymer substrate in which a microfluidic flow channel is positioned, b. providing at least two ultrasound transducers in acoustic contact with one surface of the substrate, c. actuating the at least two ultrasound transducers at a frequency f that corresponds to an acoustic resonance peak of the substrate including the microfluidic flow channel filled with a liquid suspension , and d. providing the liquid suspension in the flow channel to perform the acoustophoretic operation on the liquid suspension.