mhurhangee/patent-ind-claim-en huggingface dataset:
Method for enhancing contrast to noise ratio in an electronic representation of an original image represented by an array of pixel values by processing said image, said processing comprising the steps of a) decomposing said digital image into a set of detail images at multiple resolution levels and a residual image at a resolution level lower than said multiple resolution levels, b) processing the detail images, c) computing a processed image by applying a reconstruction algorithm to the residual image and the processed detail images, said reconstruction algorithm being such that if it were applied to the residual image and the detail images without processing, then said digital image or a close approximation thereof would be obtained, d) calculating a local variance value for at least one detail image pixel within a neighbourhood of said detail image pixel, e) enhancing or suppressing at least one detail image pixel as a function of said local variance value and said detail image pixel value characterized in that said local variance value is computed as a predetermined percentile of the squared values of detail image pixels within a neighbourhood. a) decomposing said digital image into a set of detail images at multiple resolution levels and a residual image at a resolution level lower than said multiple resolution levels, b) processing the detail images, c) computing a processed image by applying a reconstruction algorithm to the residual image and the processed detail images, said reconstruction algorithm being such that if it were applied to the residual image and the detail images without processing, then said digital image or a close approximation thereof would be obtained, d) calculating a local variance value for at least one detail image pixel within a neighbourhood of said detail image pixel, e) enhancing or suppressing at least one detail image pixel as a function of said local variance value and said detail image pixel value
A wireless power transmitter comprising: an object-sensing circuit configured to: receive a first signal from an object sensor that is separate from a transmit coil of the wireless power transmitter, wherein applying power to the transmit coil is not required to activate the object sensor; process the first signal to determine a proximity of an object to the wireless power transmitter; and provide a control signal to activate the transmit coil in response to determining proximity of the object, the wireless power transmitter characterised by further comprising an inductive sensor configured to detect a change of impedance of the transmit coil and to confirm the presence of the object placed in a charging region of the wireless power transmitter. process the first signal to determine a proximity of an object to the wireless power transmitter; and provide a control signal to activate the transmit coil in response to determining proximity of the object, the wireless power transmitter characterised by further comprising an inductive sensor configured to detect a change of impedance of the transmit coil and to confirm the presence of the object placed in a charging region of the wireless power transmitter.
An arithmetic processing apparatus comprising: a searching unit and a searching unit in evolutionary computation that searches an optimum value of inputs by calculating an objective function based on eigen solutions for inputs and repeatedly calculating the objective function, wherein the predicting unit that predicts a range of an eigen solution for a second input, which satisfies a predetermined eigen solution condition, based on a first eigen solution for a first input; and the searching unit that searches a second eigen solution for the second input, which satisfies the eigen solution condition, in the predicted range of the eigen solution. a searching unit and a searching unit in evolutionary computation that searches an optimum value of inputs by calculating an objective function based on eigen solutions for inputs and repeatedly calculating the objective function, wherein the predicting unit that predicts a range of an eigen solution for a second input, which satisfies a predetermined eigen solution condition, based on a first eigen solution for a first input; and the searching unit that searches a second eigen solution for the second input, which satisfies the eigen solution condition, in the predicted range of the eigen solution.
A method comprising: receiving (4.1) user tracking data from a user tracking system, the user tracking data comprising at least one tracking parameter, wherein each tracking parameter indicates a location of a respective tracking sensor or marker worn by a user of the user tracking system; determining (4.2) whether one or more tracking parameters are missing; in response to determining that one or more tracking parameters are missing, sending (4.6) a request to a server for a prediction model for estimating the one or more missing tracking parameters, wherein the prediction model is created or updated by the server by using as input tracking data from another tracking system having tracking parameters coming from a superset of the tracking sensors or markers of the user tracking system, wherein the request comprises an application identifier; receiving (4.7) the prediction model from the server; and calculating (4.8) an estimation of the one or more missing tracking parameters based on the received prediction model and the received user tracking data. receiving (4.1) user tracking data from a user tracking system, the user tracking data comprising at least one tracking parameter, wherein each tracking parameter indicates a location of a respective tracking sensor or marker worn by a user of the user tracking system; determining (4.2) whether one or more tracking parameters are missing; in response to determining that one or more tracking parameters are missing, sending (4.6) a request to a server for a prediction model for estimating the one or more missing tracking parameters, wherein the prediction model is created or updated by the server by using as input tracking data from another tracking system having tracking parameters coming from a superset of the tracking sensors or markers of the user tracking system, wherein the request comprises an application identifier; receiving (4.7) the prediction model from the server; and calculating (4.8) an estimation of the one or more missing tracking parameters based on the received prediction model and the received user tracking data.
A steam turbine rotor assembly comprising: a rotor body having a slot extending entirely circumferentially about a primary axis of the rotor body , the slot including: a primary slot extending an entire circumferential distance about the rotor body ; a circumferential seal having an axial face and being provided within the primary slot , wherein the circumferential seal within the primary slot is provided to span the entire circumferential distance about the rotor body ; and in that the rotor assembly further comprises a secondary slot extending axially from the primary slot and spanning only a portion of the circumferential distance about the rotor body ; a set of seal retaining members within the primary slot contacting said axial face of the circumferential seal ; and a first rotor key member the steam turbine rotor assembly being characterised in that the first rotor key member comprises a main body sized to contact the axial face of the circumferential seal ; and a hook extending from the main body in a direction axially away from the circumferential seal , the hook sized to complement a corresponding shelf in the primary slot to restrict movement of the circumferential seal relative to the rotor body . a primary slot extending an entire circumferential distance about the rotor body ; a circumferential seal having an axial face and being provided within the primary slot , wherein the circumferential seal within the primary slot is provided to span the entire circumferential distance about the rotor body ; and in that the rotor assembly further comprises a secondary slot extending axially from the primary slot and spanning only a portion of the circumferential distance about the rotor body ; a set of seal retaining members within the primary slot contacting said axial face of the circumferential seal ; and a first rotor key member the steam turbine rotor assembly being characterised in that the first rotor key member comprises a main body sized to contact the axial face of the circumferential seal ; and a hook extending from the main body in a direction axially away from the circumferential seal , the hook sized to complement a corresponding shelf in the primary slot to restrict movement of the circumferential seal relative to the rotor body .
A sanitary fitting , comprising at least: - one fitting housing ; - one mixing valve for mixing cold water and hot water into mixed water; and - a thermostatic mixer for mixing cold water and hot water into hot water, comprising an expansion element and a slide actuatable by the expansion element for adjusting a mixing ratio between the cold water and the hot water, wherein the expansion element and the slide are arranged non-coaxially with each other. - one fitting housing ; - one mixing valve for mixing cold water and hot water into mixed water; and - a thermostatic mixer for mixing cold water and hot water into hot water, comprising an expansion element and a slide actuatable by the expansion element for adjusting a mixing ratio between the cold water and the hot water, wherein the expansion element and the slide are arranged non-coaxially with each other.
A layout for a hybrid or electric industrial vehicle comprising a driving axle (RX) and a power distributor (TB) wherein said driving axle comprises a differential gear (D) wherein a crown wheel and pinion are housed and, to which, a left axle-shaft (SX) and a right axle-shaft (SD) are connected, arranged for guiding respective wheels (RW) into rotation, wherein said differential gear comprises a first case (DC) comprising at least two parts and said power distributor (TB) comprises a second case (TBC) comprising at least two parts, and wherein a part of said second case is shared with said first case, defining a lid for said first case, wherein said power distributor comprises at least two inputs arranged perpendicular to said axle-shafts and wherein a first electric motor (M1) is associated with a first of said inputs so as to be overlying, in operation, said differential gear. wherein said first electric motor is interconnected with said power distributor by means of an interconnecting case (M1C) wherein a drive shaft of said first electric motor, having a tubular elongated shape, is keyed. characterized in that said interconnecting case (M1C) comprises a lower interface and an upper interface, wherein said lower interface is complementary to an upper interface of the case (DC) of the differential gear, and said upper interface of the interconnecting case (M1C) is adapted to be coupled to a pair of retaining rods (RD, RL) converging on said upper interface of the interconnecting case (M1C) for fixing said differential gear in respect to a vehicle frame (L1, L2).
A multiphasic process fluid flowmeter comprising: power circuitry configured to provide power supplied via a process communication loop to the flowmeter; loop communication circuitry configured to couple to the process communication loop to provide a process communication output indicative of a flow value relative to a multiphasic process fluid flow; a controller coupled to the power circuitry and to the loop communication circuitry ; measurement circuitry operably coupled to the controller , the measurement circuitry being coupled to a first process variable sensor; wherein the controller is configured to obtain information indicative of a first process variable from the measurement circuitry , and to obtain a plurality of additional process variables relative to the multiphasic process fluid flow, the additional process variables including reference pressure, temperature and gas velocity; wherein the flowmeter is wholly powered by energy received from the process communication loop ; wherein the controller includes memory storing program instructions therein, wherein, in accordance with the program instructions, the controller is configured to calculate an overreading value of the first process variable in a linear relationship with a value that relates a total gas mass flow to a total liquid mass flow; and the controller being configured to provide a corrected multiphase flow value based upon the first process variable and the additional process variables to modify the linear relationship. power circuitry configured to provide power supplied via a process communication loop to the flowmeter; loop communication circuitry configured to couple to the process communication loop to provide a process communication output indicative of a flow value relative to a multiphasic process fluid flow; a controller coupled to the power circuitry and to the loop communication circuitry ; measurement circuitry operably coupled to the controller , the measurement circuitry being coupled to a first process variable sensor; wherein the controller is configured to obtain information indicative of a first process variable from the measurement circuitry , and to obtain a plurality of additional process variables relative to the multiphasic process fluid flow, the additional process variables including reference pressure, temperature and gas velocity; wherein the flowmeter is wholly powered by energy received from the process communication loop ; wherein the controller includes memory storing program instructions therein, wherein, in accordance with the program instructions, the controller is configured to calculate an overreading value of the first process variable in a linear relationship with a value that relates a total gas mass flow to a total liquid mass flow; and the controller being configured to provide a corrected multiphase flow value based upon the first process variable and the additional process variables to modify the linear relationship.
A foldable terminal, wherein the foldable terminal comprises a body , a display component , a processor , and a covering detection sensor , wherein the body comprises a first body part and a second body part that are connected in a foldable connection manner, the display component comprises two display parts, and the two display parts are fastened on the different body parts; the covering detection sensor is disposed on the first body part ; the covering detection sensor disposed on the first body part is configured to detect whether the first body part is covered with a terminal protective case; and the processor is configured to: when the body is in a folded state, control, if the covering detection sensor disposed on the first body part detects that the first body part is not covered with the terminal protective case, a to-be-used display part in the two display parts is controlled by the processor to be completely or partially on without a user manually pressing a button to turn on the corresponding display part, wherein the to-be-used display part is a display part that is predicted based on status data of a user and/or an operation instruction entered by the user, and wherein the processor is configured to control the display part other than the to-be-used display part not to be on when the to-be-used display part is controlled to be completely or partially on based on the prediction. the body comprises a first body part and a second body part that are connected in a foldable connection manner, the display component comprises two display parts, and the two display parts are fastened on the different body parts; the covering detection sensor is disposed on the first body part ; the covering detection sensor disposed on the first body part is configured to detect whether the first body part is covered with a terminal protective case; and the processor is configured to: when the body is in a folded state, control, if the covering detection sensor disposed on the first body part detects that the first body part is not covered with the terminal protective case, a to-be-used display part in the two display parts is controlled by the processor to be completely or partially on without a user manually pressing a button to turn on the corresponding display part, wherein the to-be-used display part is a display part that is predicted based on status data of a user and/or an operation instruction entered by the user, and wherein the processor is configured to control the display part other than the to-be-used display part not to be on when the to-be-used display part is controlled to be completely or partially on based on the prediction.
A method for detecting DNA methylation within genomic DNA from a sample comprising cell-free DNA from blood or a sample derived therefrom of a subject, wherein the genomic DNA has a sequence comprised in SEQ ID NO: 21 and comprises at least 4 CpG dinucleotides, and wherein the subject has an increased risk for or is suspected of having a cancer selected from the group consisting of stomach, liver, colon, ovary, esophagus, bladder and prostate cancer.
A process for making a multilayered article, the process comprising the steps of: (A) Providing a mold comprising: a mold housing comprising (a) at least one injection port , and (b) defining a mold cavity within which are positioned two deformable, pre-molded polymeric sheets; and a removable, hollow core equipped with at least one vent, the removable, hollow core positioned between and spaced apart from the two polymeric sheets; (B) Chilling the mold to an internal mold temperature prior to injection of the polymer to 10°C to 20°C; (C) Injecting at a pressure from 1 MPa to 300 MPa a viscous, crosslinkable, thermoplastic polymer into the mold cavity between the two polymeric sheets and around the removable core ; (D) Drawing a vacuum on the mold cavity through the vent in the removable, hollow core before, during and/or after the polymer has been injected into the mold; (E) Forming a less than fully cured multilayered article in the mold cavity ; and (F) Removing the less than fully cured multilayer article from the mold cavity . (A) Providing a mold comprising: a mold housing comprising (a) at least one injection port , and (b) defining a mold cavity within which are positioned two deformable, pre-molded polymeric sheets; and a removable, hollow core equipped with at least one vent, the removable, hollow core positioned between and spaced apart from the two polymeric sheets; a mold housing comprising (a) at least one injection port , and (b) defining a mold cavity within which are positioned two deformable, pre-molded polymeric sheets; and a removable, hollow core equipped with at least one vent, the removable, hollow core positioned between and spaced apart from the two polymeric sheets; (B) Chilling the mold to an internal mold temperature prior to injection of the polymer to 10°C to 20°C; (C) Injecting at a pressure from 1 MPa to 300 MPa a viscous, crosslinkable, thermoplastic polymer into the mold cavity between the two polymeric sheets and around the removable core ; (D) Drawing a vacuum on the mold cavity through the vent in the removable, hollow core before, during and/or after the polymer has been injected into the mold; (E) Forming a less than fully cured multilayered article in the mold cavity ; and (F) Removing the less than fully cured multilayer article from the mold cavity .
An implantable heart help device for assisting the pump function of the heart by exerting an external force on the heart, wherein said implantable device comprises: • a first fixating member adapted to fixate said device to the sternum, • a second fixating member , • at least one connecting arm , and • at least one heart pump device , wherein said connecting arm is configured to be arranged in contact with said second fixating member and said heart pump device, and wherein said second fixating member is configured to be displaceable in relation to said first fixating member for changing the position of said heart pump device. • a first fixating member adapted to fixate said device to the sternum, • a second fixating member , • at least one connecting arm , and • at least one heart pump device ,
Cogset for a bicycle rear wheel, adapted for being mounted coaxially on a sprocket-carrying body , comprising a total of 12, 13 or 14 axially adjacent sprockets (21a, 21b, 21c, 22a, 22b, 22c, 23, 24, 25, 26a, 26b, 26c; 126a, 126b, 126c, 126d) arranged from a first sprocket (26c; 126d) having minimum number of teeth to a last sprocket having maximum number of teeth, wherein the first n sprockets (26c, 26b, 26a; 126d, 126c, 126b, 126a) with 6 ≥ n ≥ 3 are fixedly connected to one another so as to form a monolithic set (26; 126), and wherein the monolithic set (26; 126) is adapted for being directly in shape engagement on a coupling profile formed on the radially peripheral surface of the sprocket-carrying body through a coupling profile (32; 132) formed on the radially inner surface of at least the largest sprocket (26a; 126a, 126b) of the monolithic set , whereas the smallest sprockets (26b, 26c; 126c, 126d) of the monolithic set (26; 126) remain axially canti-levered, said coupling profile comprising - at the largest sprocket (26a; 126a, 126b) of the monolithic set (26; 126) - projections facing radially inwards, to constitute an inner shape coupling profile formed on the radially inner surface of the largest sprocket (26a; 126a, 126b), wherein the coupling profile formed by the projections has a shape corresponding to the shape of a coupling profile formed by grooves on the radially peripheral surface of the sprocket-carrying body , characterized in that the monolithic set (26; 126) is apt to be mounted partially slotted onto the sprocket-carrying body , with the projections engaging in the grooves .