mhurhangee/patent-ind-claim-en huggingface dataset:
A layer transfer device for transferring a transfer layer (F22) onto a toner image formed on a sheet (S), the layer transfer device comprising: a housing ; a film cartridge comprising: a supply reel including a supply shaft on which a multilayer film (F) including a supported layer (F2) including a transfer layer (F22), and a supporting layer (F1) supporting the supported layer (F2) is wound; and a take-up reel including a take-up shaft on which to take up the multilayer film (F); and a holder configured to support the film cartridge , the holder being installable into and removable from the housing while supporting the film cartridge , characterised in that the film cartridge is installable into and removable from the holder along a direction perpendicular to an axial direction of the supply reel , and and in that the holder supporting the film cartridge is installable into and removable from the housing along the direction perpendicular to the axial direction. a housing ; a film cartridge comprising: a supply reel including a supply shaft on which a multilayer film (F) including a supported layer (F2) including a transfer layer (F22), and a supporting layer (F1) supporting the supported layer (F2) is wound; and a take-up reel including a take-up shaft on which to take up the multilayer film (F); and a holder configured to support the film cartridge , the holder being installable into and removable from the housing while supporting the film cartridge , characterised in that the film cartridge is installable into and removable from the holder along a direction perpendicular to an axial direction of the supply reel , and and in that the holder supporting the film cartridge is installable into and removable from the housing along the direction perpendicular to the axial direction.
A computer-implemented method of generating high-resolution reservoir parameters, comprising: a. receiving (A), at one or more processors, a seismic dataset representative of a subsurface volume of interest; b. inverting , via the one or more processors, the seismic dataset to generate an ensemble of coarse-scale seismic parameters, wherein the inverting may use one of Bayesian models with Markov Chain Monte Carlo, MCMC, sampling, simulated annealing, partial swarm, or analytic Bayes formulations; c. receiving, at the one or more processors, fine-scale lithotype models and a corresponding ensemble of coarse-scale models; d. developing , via the one or more processors, deep learning neural networks based on transfer learning using the fine-scale lithotype models and the corresponding ensemble of coarse-scale models to generate a conditional probability distribution of high-resolution reservoir parameters; e. generating (C), via the one or more processors, an ensemble of high-resolution reservoir parameters by applying the conditional probability distribution of high-resolution reservoir parameters to the ensemble of coarse-scale seismic parameters to condition the ensemble of coarse-scale seismic parameters; and f. displaying, on a user interface, the ensemble of high-resolution reservoir parameters. a. receiving (A), at one or more processors, a seismic dataset representative of a subsurface volume of interest; b. inverting , via the one or more processors, the seismic dataset to generate an ensemble of coarse-scale seismic parameters, wherein the inverting may use one of Bayesian models with Markov Chain Monte Carlo, MCMC, sampling, simulated annealing, partial swarm, or analytic Bayes formulations; c. receiving, at the one or more processors, fine-scale lithotype models and a corresponding ensemble of coarse-scale models; d. developing , via the one or more processors, deep learning neural networks based on transfer learning using the fine-scale lithotype models and the corresponding ensemble of coarse-scale models to generate a conditional probability distribution of high-resolution reservoir parameters; e. generating (C), via the one or more processors, an ensemble of high-resolution reservoir parameters by applying the conditional probability distribution of high-resolution reservoir parameters to the ensemble of coarse-scale seismic parameters to condition the ensemble of coarse-scale seismic parameters; and f. displaying, on a user interface, the ensemble of high-resolution reservoir parameters.
A radiocarpal joint replacement apparatus for implantation in a wrist of a subject, the apparatus comprising: a radial member configured to be affixed to a portion of an end of the radial bone proximal to the wrist including a fixture to be affixed over a longitudinal aspect of the radial bone and a radial resurfacing plate having a substantially concave surface configured to be located at the end of the radial bone; a carpal capitate bone insert configured to be inserted and affixed into the carpal capitate bone; and a bulbous component comprising a second convex head ; wherein the radial resurfacing plate of the radial member with the concave surface is configured to be operably coupled to the second convex head of the bulbous component so as to allow radial freedom of motion of the bulbous component with respect to the radial resurfacing plate after the implantation, characterised in that the bulbous component comprises a first convex head , wherein the first convex head and the second convex head are substantially opposite each other and connected by a neck defining an annular groove between the first convex head and the second convex head, wherein the carpal capitate bone insert is configured to be flexibly coupled to the first convex head of the bulbous component. a radial member configured to be affixed to a portion of an end of the radial bone proximal to the wrist including a fixture to be affixed over a longitudinal aspect of the radial bone and a radial resurfacing plate having a substantially concave surface configured to be located at the end of the radial bone; a carpal capitate bone insert configured to be inserted and affixed into the carpal capitate bone; and a bulbous component comprising a second convex head ; wherein the radial resurfacing plate of the radial member with the concave surface is configured to be operably coupled to the second convex head of the bulbous component so as to allow radial freedom of motion of the bulbous component with respect to the radial resurfacing plate after the implantation, characterised in that the bulbous component comprises a first convex head , wherein the first convex head and the second convex head are substantially opposite each other and connected by a neck defining an annular groove between the first convex head and the second convex head, wherein the carpal capitate bone insert is configured to be flexibly coupled to the first convex head of the bulbous component.
A method performed by a user equipment , the user equipment being limited to a certain maximum total transmit power, comprising: determining at a physical layer that a predetermined condition has been met with respect to a user equipment power limited situation related to overlapping preamble transmissions during random access procedure of dual connectivity; and communicating an indication that the predetermined condition has been met to a higher layer based on the determining that the predetermined condition has been met to inform the higher layer of dropped preamble transmissions in order for the higher layer to avoid excessive power ramp-up of preamble power. determining at a physical layer that a predetermined condition has been met with respect to a user equipment power limited situation related to overlapping preamble transmissions during random access procedure of dual connectivity; and communicating an indication that the predetermined condition has been met to a higher layer based on the determining that the predetermined condition has been met to inform the higher layer of dropped preamble transmissions in order for the higher layer to avoid excessive power ramp-up of preamble power.
A solar cell module , comprising: - a solar cell comprising a perovskite solar cell; - a first encapsulating material and a second encapsulating material configured to seal the solar cell , wherein the first encapsulating material is placed on a light receiving surface; - a first protective member disposed on the first encapsulating material ; - a second protective member disposed on the second encapsulating material ; and - a third encapsulating material disposed on lateral surfaces of the first encapsulating material and the second encapsulating material , and disposed between the first protective member and the second protective member , wherein the second protective member is implemented as a sheet made of a light transmitting material or a reflective material, - wherein a water vapor transmission rate, WVTR, of the third encapsulating material is lower than that of the second encapsulating material , and a WVTR of the second encapsulating material is lower than that of the first encapsulating material , - wherein the first and second encapsulating materials comprise an insulating material having light transmittance and adhesion, and - wherein the first encapsulating material has a higher light transmittance or higher light transmission than the second encapsulating material . - a solar cell comprising a perovskite solar cell; - a first encapsulating material and a second encapsulating material configured to seal the solar cell , wherein the first encapsulating material is placed on a light receiving surface; - a first protective member disposed on the first encapsulating material ; - a second protective member disposed on the second encapsulating material ; and - a third encapsulating material disposed on lateral surfaces of the first encapsulating material and the second encapsulating material , and disposed between the first protective member and the second protective member , - wherein a water vapor transmission rate, WVTR, of the third encapsulating material is lower than that of the second encapsulating material , and a WVTR of the second encapsulating material is lower than that of the first encapsulating material , - wherein the first and second encapsulating materials comprise an insulating material having light transmittance and adhesion, and - wherein the first encapsulating material has a higher light transmittance or higher light transmission than the second encapsulating material .
Method for detecting faults in a heating system and/or in an air conditioning system, in particular in an HVAC system, having a control unit having at least one acceleration sensor and/or at least one microphone , which method comprises the following steps: • ascertaining at least one sensor signal using the at least one acceleration sensor and/or using the at least one microphone , • ascertaining at least one fault variable on the basis of the at least one sensor signal , • identifying a fault if the at least one fault variable exceeds an associated fault threshold value , characterized in that , in an additional step, at least one correction signal based on at least one fault variable is ascertained if a fault was identified, wherein a correction signal is understood to mean at least one signal for controlling and/or adjusting the operation of at least one component of the heating system and/or of the air conditioning system, and in that , in an additional step, operating parameters based on at least one fault variable are stored in a memory in the control unit , this allowing targeted control of the heating system and/or of the air conditioning system in order to counteract the fault. • ascertaining at least one sensor signal using the at least one acceleration sensor and/or using the at least one microphone , • ascertaining at least one fault variable on the basis of the at least one sensor signal , • identifying a fault if the at least one fault variable exceeds an associated fault threshold value ,
A computer-implemented method, comprising: - obtaining, using an image capturing device, at least one digital image of a target coating, each digital image being obtained at a different angle with respect to a surface of the target coating; - performing, using an electronic computer processor in an operative connection with at least one filtering unit, a first image analysis on the obtained at least one digital image to determine at least one bright region within the at least one digital image by isolating image foreground data from image background data; - performing, using the processor, a blob analysis to determine at least one corrupt area within the at least one bright region; wherein the blob analysis comprises searching in the image foreground data obtained from the first image analysis for blobs with a big aspect ratio compared to the majority of residual blobs obtained from the image foreground data, wherein a second threshold value is defined and an aspect ratio of each blob obtained from the image foreground data is compared with the second threshold value and a blob is identified as corrupt area when its aspect ratio is equal or greater than the second threshold value, wherein the second threshold value for the blob aspect ratios is set to more than 3; and if at least one corrupt area is found, - masking out the at least one corrupt area for further analysis of the respective digital image, for further image processing as the at least one corrupt area is removed, and alternatively, rejecting the respective digital image and initiating a repetition of the image capturing in order to obtain a new digital image of the target coating. - obtaining, using an image capturing device, at least one digital image of a target coating, each digital image being obtained at a different angle with respect to a surface of the target coating; - performing, using an electronic computer processor in an operative connection with at least one filtering unit, a first image analysis on the obtained at least one digital image to determine at least one bright region within the at least one digital image by isolating image foreground data from image background data; - performing, using the processor, a blob analysis to determine at least one corrupt area within the at least one bright region; wherein the blob analysis comprises searching in the image foreground data obtained from the first image analysis for blobs with a big aspect ratio compared to the majority of residual blobs obtained from the image foreground data, wherein a second threshold value is defined and an aspect ratio of each blob obtained from the image foreground data is compared with the second threshold value and a blob is identified as corrupt area when its aspect ratio is equal or greater than the second threshold value, wherein the second threshold value for the blob aspect ratios is set to more than 3; and - masking out the at least one corrupt area for further analysis of the respective digital image, for further image processing as the at least one corrupt area is removed, and alternatively,
Device for providing electric power to a pram with a wheel shaft , comprising at least one gearbox that can be activated via turning the pram wheel shaft , as the pram moves on its wheels, a generator , at least one battery and a control circuit board , whereby the generator is connected to the at least one battery and is actuated via said gearbox , whereby the generator powers the control circuit board which is associated with a screen for viewing system operation; an electric blanket for heating the seat; characterized in that the control circuit board is further associated with a holder for heating a feeding bottle and USB output connectors for charging mobile phones.
A computer-implemented method for generating a pseudo-CT image for a patient, comprising: receiving a Magnetic Resonance (MR) image of the patient; extracting a plurality of image features from each image point of the MR image, the plurality of image features for each image point of the MR image forming a feature vector; generating an intermediate image using an intermediate predictive model based on the plurality of feature vectors; extracting one or more features from the intermediate image; and generating the pseudo-CT image for the patient using a further predictive model, based on the plurality of features extracted from the MR image and the one or more features extracted from the intermediate image. receiving a Magnetic Resonance (MR) image of the patient; extracting a plurality of image features from each image point of the MR image, the plurality of image features for each image point of the MR image forming a feature vector; generating an intermediate image using an intermediate predictive model based on the plurality of feature vectors; extracting one or more features from the intermediate image; and generating the pseudo-CT image for the patient using a further predictive model, based on the plurality of features extracted from the MR image and the one or more features extracted from the intermediate image.
A film forming method for a metal film, the method comprising: supplying a metallic solution containing metallic ions such that the metallic solution comes in contact with a solid electrolyte membrane from an anode side of the solid electrolyte membrane in a state in which the solid electrolyte membrane is disposed between the anode and a substrate (W); pressing the solid electrolyte membrane to the substrate (W); and applying voltage between the anode and the substrate (W) in a state in which the solid electrolyte membrane is pressed to the substrate (W) so as to form the metal film deriving from the metallic ions on a surface of the substrate (W), characterised in that : the solid electrolyte membrane includes: a first portion made of an ion permeable material that the metallic ions permeate; and a second portion made of a material having an electric insulating property and having a lower permeability of the metallic ions than a permeability of the ion permeable material of the first portion , the second portion being embedded in the first portion so as to be exposed from a surface of the solid electrolyte membrane , the surface of the solid electrolyte membrane facing the substrate (W). supplying a metallic solution containing metallic ions such that the metallic solution comes in contact with a solid electrolyte membrane from an anode side of the solid electrolyte membrane in a state in which the solid electrolyte membrane is disposed between the anode and a substrate (W); pressing the solid electrolyte membrane to the substrate (W); and applying voltage between the anode and the substrate (W) in a state in which the solid electrolyte membrane is pressed to the substrate (W) so as to form the metal film deriving from the metallic ions on a surface of the substrate (W), characterised in that : the solid electrolyte membrane includes: a first portion made of an ion permeable material that the metallic ions permeate; and a second portion made of a material having an electric insulating property and having a lower permeability of the metallic ions than a permeability of the ion permeable material of the first portion , the second portion being embedded in the first portion so as to be exposed from a surface of the solid electrolyte membrane , the surface of the solid electrolyte membrane facing the substrate (W). the solid electrolyte membrane includes: a first portion made of an ion permeable material that the metallic ions permeate; and a second portion made of a material having an electric insulating property and having a lower permeability of the metallic ions than a permeability of the ion permeable material of the first portion , the second portion being embedded in the first portion so as to be exposed from a surface of the solid electrolyte membrane , the surface of the solid electrolyte membrane facing the substrate (W).
A device for joining two layers of tissue, comprising: a) a substantially flat and flexible scaffold having an upper surface, a lower surface and sidewalls; b) a plurality of first passages penetrating said scaffold from said upper surface to said lower surface; c) a plurality of second passages penetrating said scaffold from said upper surface to said lower surface; d) a substantially flat and flexible top cover releasably attached to said upper surface and covering all of said upper surface; and said top cover having a plurality of top cover passages aligned with said first plurality of passages. a) a substantially flat and flexible scaffold having an upper surface, a lower surface and sidewalls; b) a plurality of first passages penetrating said scaffold from said upper surface to said lower surface; c) a plurality of second passages penetrating said scaffold from said upper surface to said lower surface; d) a substantially flat and flexible top cover releasably attached to said upper surface and covering all of said upper surface; and
An agricultural baler for compressing material into square bales , in particular for compressing straw bales, comprising - a main channel , - at least one main compactor , - at least one binding device , - at least one drive device , as well as - at least one transmission device , wherein the main compactor cooperates with the drive device by means of the transmission device , so that the main compactor can oscillate backwards and forwards within the main channel parallel to a channel axis of the main channel and in this manner, material located in the main channel can be successively compressed, wherein, by means of the binding device , compressed material located within the main channel can be accumulated portion by portion so that a respective bale is formed, characterized by a control device by means of which, in addition to an operational mode in which the respective material can be compressed into the bale , the baler can additionally be operated in a maintenance mode and a start-up mode, wherein, when the baler is operated in the maintenance mode, at least the main compactor can be moved at a maintenance speed which is reduced with respect to an operating speed used in the operational mode, and wherein, when the baler is operated in the start-up mode, at least the main compactor can be moved in a direction of movement which is opposite to that of the operational mode, and wherein the baler comprises at least one energy storage system which cooperates with a drive shaft of the drive device wherein, by means of the energy storage system , braking energy can be stored during the course of braking of the drive shaft and acceleration energy can be transmitted to the drive shaft during the course of an acceleration of the drive shaft , and at least during the course of the operation of the baler in its start-up mode, at least some of the energy for the drive device is supplied by means of the energy storage system . - a main channel , - at least one main compactor , - at least one binding device , - at least one drive device , as well as - at least one transmission device ,