mhurhangee/patent-ind-claim-en huggingface dataset:
A biomedical signal acquisition system comprising an AC coupled differential input instrumentation amplifier and a capacitor circuit directly connected to one of two input lines (inp, inn) of the instrumentation amplifier respectively, characterized in that the capacitor circuit is a variable capacitor circuit comprising a plurality of MOS capacitors , each MOS capacitor being implemented by a MOS transistor with the gate terminal connected to the respective input line (inp, inn) of the instrumentation amplifier and with the drain terminal shorted with the source terminal and connected to a control voltage signal (Vc), said MOS capacitors being connected in parallel through the gate terminal, and wherein the control voltage signal (Vc) is a variable voltage; said MOS capacitors configured to be operated in a cut-off region in which the equivalent capacitance (C) of each MOS capacitor remains constant for variations of the first voltage signal; and wherein the variable capacitor circuits are configured to be tuned in capacitance value to reduce the capacitance mismatch between the input lines (inp, inn).
A method for wireless communication, comprising: receiving , by a user equipment , a first uplink grant for a first cell that uses a first component carrier; receiving , by the user equipment , a second uplink grant for a second cell that uses a second component carrier; determining , by the user equipment , a number of subframes for which uplink data is transmitted on both the first cell and the second cell during a time period, and a resource block allocation associated with the first cell and the second cell; and dropping , by the user equipment , at least one of the first uplink grant or the second uplink grant based at least in part on a determination that the number of subframes satisfies a threshold number of subframes permitted to have intermodulation interference, and a determination that the resource block allocation satisfies a condition, wherein the condition indicates that the resource block allocation causes intermodulation interference with a radio frequency spectrum band. receiving , by a user equipment , a first uplink grant for a first cell that uses a first component carrier; receiving , by the user equipment , a second uplink grant for a second cell that uses a second component carrier; determining , by the user equipment , a number of subframes for which uplink data is transmitted on both the first cell and the second cell during a time period, and a resource block allocation associated with the first cell and the second cell; and dropping , by the user equipment , at least one of the first uplink grant or the second uplink grant based at least in part on a determination that the number of subframes satisfies a threshold number of subframes permitted to have intermodulation interference, and a determination that the resource block allocation satisfies a condition, wherein the condition indicates that the resource block allocation causes intermodulation interference with a radio frequency spectrum band.
A method of determining the type of fibroepithelial tumour of the breast, in a biological sample in vitro , comprising: obtaining an expression profile of a combination of genes comprising PRAME, ABCA8, CCL19, FN1, and APOD in said sample; obtaining an expression profile of one or more normalized genes for use as a control; determining the differential activity of PRAME, ABCA8, CCL19, FN1 and APOD relative to the control based on the expression profile of the one or more genes and one or more normalized genes; correlating the differential activity of PRAME, ABCA8, CCL19, FN1 and APOD relative to the control to obtain a p-score using a predictive algorithm, wherein the predictive algorithm is: p = e 2.95575 Δ Ct of APOD − 0.11934 Δ Ct of APOD ∗ Δ Ct of ABCA 8 − 0.43165 Δ Ct of PRAME ∗ Δ Ct of FN 1 + 0.08326 Δ Ct of PRAME ∗ Δ Ct of CCL 19 1 + e 2.95575 Δ Ct of APOD − 0.11934 Δ Ct of APOD ∗ Δ Ct of ABCA 8 − 0.43165 Δ Ct of PRAME ∗ Δ Ct of FN 1 + 0.08326 Δ Ct of PRAME ∗ Δ Ct of CCL 19 ; and determining the type of fibroepithelial tumour based on the p-score, wherein a p-score of less than 0.5 is indicative of a fibroadenoma and a p-score of 0.5 and above is indicative of phyllodes tumour. obtaining an expression profile of a combination of genes comprising PRAME, ABCA8, CCL19, FN1, and APOD in said sample; obtaining an expression profile of one or more normalized genes for use as a control; determining the differential activity of PRAME, ABCA8, CCL19, FN1 and APOD relative to the control based on the expression profile of the one or more genes and one or more normalized genes; correlating the differential activity of PRAME, ABCA8, CCL19, FN1 and APOD relative to the control to obtain a p-score using a predictive algorithm, wherein the predictive algorithm is: p = e 2.95575 Δ Ct of APOD − 0.11934 Δ Ct of APOD ∗ Δ Ct of ABCA 8 − 0.43165 Δ Ct of PRAME ∗ Δ Ct of FN 1 + 0.08326 Δ Ct of PRAME ∗ Δ Ct of CCL 19 1 + e 2.95575 Δ Ct of APOD − 0.11934 Δ Ct of APOD ∗ Δ Ct of ABCA 8 − 0.43165 Δ Ct of PRAME ∗ Δ Ct of FN 1 + 0.08326 Δ Ct of PRAME ∗ Δ Ct of CCL 19 ; and determining the type of fibroepithelial tumour based on the p-score, wherein a p-score of less than 0.5 is indicative of a fibroadenoma and a p-score of 0.5 and above is indicative of phyllodes tumour.
A computer program comprising instructions which, when the program is executed by a processor, cause the processor to carry out a method of monitoring chronic respiratory disease state of a patient, the method comprising: extracting, in the processor, for each of a plurality of monitoring sessions, a respiratory feature from a respiratory signal indicative of the patient's respiration during the monitoring session, the respiratory signal derived from at least one sensor; and computing, in the processor, one or both of a first measure and a second measure, each being a stability measure of the patient for a monitoring session, the stability measure representing an indication of a change point having occurred at the monitoring session in a statistical distribution of the respiratory feature, wherein the first measure comprises a statistical posterior distribution of run length for the monitoring session given values of the respiratory feature up to and including the monitoring session, and the second measure comprises a measure of dissimilarity of probability distributions of two sets of sub-sequences of a time series formed from the respiratory feature, generating, by the processor, an output comprising an alert or presentation based on the stability measure, wherein the chronic respiratory disease state of the patient comprises Chronic Obstructive Pulmonary Disease or a cardio-pulmonary disorder. extracting, in the processor, for each of a plurality of monitoring sessions, a respiratory feature from a respiratory signal indicative of the patient's respiration during the monitoring session, the respiratory signal derived from at least one sensor; and computing, in the processor, one or both of a first measure and a second measure, each being a stability measure of the patient for a monitoring session, the stability measure representing an indication of a change point having occurred at the monitoring session in a statistical distribution of the respiratory feature, wherein the first measure comprises a statistical posterior distribution of run length for the monitoring session given values of the respiratory feature up to and including the monitoring session, and the second measure comprises a measure of dissimilarity of probability distributions of two sets of sub-sequences of a time series formed from the respiratory feature, generating, by the processor, an output comprising an alert or presentation based on the stability measure, wherein the chronic respiratory disease state of the patient comprises Chronic Obstructive Pulmonary Disease or a cardio-pulmonary disorder.
Bead-apex stitching device for stitching an apex to a bead, wherein the bead-apex stitching device comprises a first set of first stitching members distributed in a circumferential direction about a central axis for stitching the apex to the bead and a second set of second stitching members for stitching the apex to the bead in a manner different from the first stitching members of the first set, characterized in that the second stitching members of the second set are distributed in an alternating pattern with the first stitching members of the first set in the circumferential direction.
A bar soap composition made from ingredients comprising: a taurate surfactant chosen from a salt of a fatty acid amide of taurine, a salt of a fatty acid amide of N-methyl taurine, and combinations thereof, wherein the fatty acid of the taurate surfactant has 6 carbon atoms or more, a soap surfactant consisting of a salt of a C 8 -C 22 carboxylic acid, wherein the bar soap composition does not include any surfactant other than the taurate surfactant and the soap surfactant, wherein the bar soap composition does not include a medically effective amount of salicylic acid, and wherein the composition is in a solid bar form. a taurate surfactant chosen from a salt of a fatty acid amide of taurine, a salt of a fatty acid amide of N-methyl taurine, and combinations thereof, wherein the fatty acid of the taurate surfactant has 6 carbon atoms or more, a soap surfactant consisting of a salt of a C 8 -C 22 carboxylic acid, wherein the bar soap composition does not include any surfactant other than the taurate surfactant and the soap surfactant, wherein the bar soap composition does not include a medically effective amount of salicylic acid, and wherein the composition is in a solid bar form.
Method for producing transition metal oxide particles having general formula : LiMn 1.5+y Ni 0.5-y-z M z O 4 , wherein M comprises one or more elements from the group of Co, Mg, Fe and Zn, y is a value from 0 to less than 0.5, z is a value from 0 to 0.1, and (y+z) is a value less than 0.5, the method comprising the steps of: (a) reacting an aqueous solution of manganese salts, nickel salts and optional one or more further salts of the elements Co, Mg, Fe and Zn with an aqueous solution of an alkali metal hydroxide and NH 3 to precipitate a lithium-free transition metal precursor from the reaction mixture, wherein the molar starting ratio of OH - ions to metal ions (OH - :M 2+ )<1.95 and wherein the concentration of NH 4 + ions in the reaction mixture after establishing a chemical equilibrium is 0.05 mol/l or more, (b) isolating and optionally drying the precipitated lithium-free transition metal precursor from the reaction mixture, (c) reacting the lithium-free transition metal precursor with an aqueous solution of a thermally decomposable lithium compound to obtain a lithium-containing transition metal precursor, and (d) calcining the lithium-containing transition metal precursor at a temperature of 300 °C - 800 °C. wherein M comprises one or more elements from the group of Co, Mg, Fe and Zn, y is a value from 0 to less than 0.5, z is a value from 0 to 0.1, and (y+z) is a value less than 0.5, the method comprising the steps of: (a) reacting an aqueous solution of manganese salts, nickel salts and optional one or more further salts of the elements Co, Mg, Fe and Zn with an aqueous solution of an alkali metal hydroxide and NH 3 to precipitate a lithium-free transition metal precursor from the reaction mixture, wherein the molar starting ratio of OH - ions to metal ions (OH - :M 2+ )<1.95 and wherein the concentration of NH 4 + ions in the reaction mixture after establishing a chemical equilibrium is 0.05 mol/l or more, (b) isolating and optionally drying the precipitated lithium-free transition metal precursor from the reaction mixture, (c) reacting the lithium-free transition metal precursor with an aqueous solution of a thermally decomposable lithium compound to obtain a lithium-containing transition metal precursor, and (d) calcining the lithium-containing transition metal precursor at a temperature of 300 °C - 800 °C. (a) reacting an aqueous solution of manganese salts, nickel salts and optional one or more further salts of the elements Co, Mg, Fe and Zn with an aqueous solution of an alkali metal hydroxide and NH 3 to precipitate a lithium-free transition metal precursor from the reaction mixture, (b) isolating and optionally drying the precipitated lithium-free transition metal precursor from the reaction mixture, (c) reacting the lithium-free transition metal precursor with an aqueous solution of a thermally decomposable lithium compound to obtain a lithium-containing transition metal precursor, and (d) calcining the lithium-containing transition metal precursor at a temperature of 300 °C - 800 °C.
A cell selection method comprising: determining , by a terminal device, candidate measurement frequencies according to geographical location information, satellite orbit information of one or more satellites in a service area where the terminal device is located, and a correspondence between the satellite orbit information and frequency bands used by the one or more satellites; wherein the geographical location information is for indicating geographical location coordinates where the terminal device is currently located, and the satellite orbit information comprises orbital data information and/or identification information of the one or more satellites; performing , by the terminal device, a cell measurement on the candidate measurement frequencies to obtain measurement results; and selecting or re-selecting , by the terminal device, a target cell which meets a first preset condition based on a measurement result meeting the first preset condition in the measurement results; wherein the first preset condition is received from a network device, or the first preset condition is preset in the terminal device. determining , by a terminal device, candidate measurement frequencies according to geographical location information, satellite orbit information of one or more satellites in a service area where the terminal device is located, and a correspondence between the satellite orbit information and frequency bands used by the one or more satellites; wherein the geographical location information is for indicating geographical location coordinates where the terminal device is currently located, and the satellite orbit information comprises orbital data information and/or identification information of the one or more satellites; performing , by the terminal device, a cell measurement on the candidate measurement frequencies to obtain measurement results; and selecting or re-selecting , by the terminal device, a target cell which meets a first preset condition based on a measurement result meeting the first preset condition in the measurement results; wherein the first preset condition is received from a network device, or the first preset condition is preset in the terminal device.
Door unit for a vehicle , comprising: a door which is configured such that, in a closed position, it covers an opening in the vehicle and delimits a vehicle interior from vehicle surroundings ; a pressure-equalization flap which is configured such that, in a sealing position, it covers a pressure-equalization opening in the door and, in a pressure-equalization position, it at least partially opens up the pressure-equalization opening ; a locking element which is configured such that, in a locking state, it locks the door in the closed position and, in an unlocking state, it unlocks the door ; and a blocking element which is configured such that, in the sealing position of the pressure-equalization flap , it blocks a movement of the locking element from the locking state into the unlocking state, wherein the blocking element is arranged on the pressure-equalization flap , characterized in that the blocking element is configured such that, in the sealing position of the pressure-equalization flap , it blocks a translation of the locking element from the locking state into the unlocking state. a door which is configured such that, in a closed position, it covers an opening in the vehicle and delimits a vehicle interior from vehicle surroundings ; a pressure-equalization flap which is configured such that, in a sealing position, it covers a pressure-equalization opening in the door and, in a pressure-equalization position, it at least partially opens up the pressure-equalization opening ; a locking element which is configured such that, in a locking state, it locks the door in the closed position and, in an unlocking state, it unlocks the door ; and a blocking element which is configured such that, in the sealing position of the pressure-equalization flap , it blocks a movement of the locking element from the locking state into the unlocking state, wherein the blocking element is arranged on the pressure-equalization flap , characterized in that the blocking element is configured such that, in the sealing position of the pressure-equalization flap , it blocks a translation of the locking element from the locking state into the unlocking state.
A system to detect a source of a complex heart rhythm disorder, the system comprising: a plurality of sensors disposed at multiple locations in relation to a heart to sense heart activation signals; and a processor interfacing with the plurality of sensors , wherein the processor is configured to: collect from the plurality of sensors data associated with the heart activation signals, the data comprising an activation onset time of each heart activation signal at each location such that a plurality of activation onset times within the heart activation signals at a plurality of locations is collected; generate an activation trail from the data based on the sequential order of the plurality of activation onset times within the heart activation signals at the plurality of locations, wherein the activation trail represents a discernible signature pattern indicative of a localized source responsible for perpetuation of the complex heart rhythm disorder; and generate a clinical representation that identifies a region of the heart associated with the localized source. a plurality of sensors disposed at multiple locations in relation to a heart to sense heart activation signals; and a processor interfacing with the plurality of sensors , wherein the processor is configured to: collect from the plurality of sensors data associated with the heart activation signals, the data comprising an activation onset time of each heart activation signal at each location such that a plurality of activation onset times within the heart activation signals at a plurality of locations is collected; generate an activation trail from the data based on the sequential order of the plurality of activation onset times within the heart activation signals at the plurality of locations, wherein the activation trail represents a discernible signature pattern indicative of a localized source responsible for perpetuation of the complex heart rhythm disorder; and generate a clinical representation that identifies a region of the heart associated with the localized source. collect from the plurality of sensors data associated with the heart activation signals, the data comprising an activation onset time of each heart activation signal at each location such that a plurality of activation onset times within the heart activation signals at a plurality of locations is collected; generate an activation trail from the data based on the sequential order of the plurality of activation onset times within the heart activation signals at the plurality of locations, wherein the activation trail represents a discernible signature pattern indicative of a localized source responsible for perpetuation of the complex heart rhythm disorder; and generate a clinical representation that identifies a region of the heart associated with the localized source.
Thermally conductive insulator having, - first part with first fins which are arranged on at least one surface of the first part , and - a second part with second fins , which are arranged on at least one surface of the second part , wherein the first fins and the second fins are arranged in such a way that they mesh with one another, wherein an insulating layer for electrical insulation is arranged between the first part and the second part at least in the region of the fins , wherein the first part and the second part are made from metal, wherein the insulating layer is made of a flexible material. - first part with first fins which are arranged on at least one surface of the first part , and - a second part with second fins , which are arranged on at least one surface of the second part , wherein the first fins and the second fins are arranged in such a way that they mesh with one another, wherein an insulating layer for electrical insulation is arranged between the first part and the second part at least in the region of the fins , wherein the first part and the second part are made from metal, wherein the insulating layer is made of a flexible material.
Working spindle cooling device having a housing , a supply channel arranged within the housing , a return channel arranged within the housing and a sealing device arranged within the housing which contains a stationary bushing , a bushing rotatable relative to the stationary bushing and seals arranged between the stationary bushing and the rotatable bushing to seal an annular gap between the stationary bushing and the rotatable bushing , characterised in that the sealing device also contains at least one support and guide element arranged between the stationary bushing and the rotatable bushing and resting on both bushings which subdivides in sealed-off manner the radial gap limited laterally by the two seals into an inflow region and a return region.
A melt-blown nonwoven fabric comprising a fiber containing a thermoplastic resin as its main component, wherein apparent density, measured as described in the specification, is 0.1 to 0.4 g/cm 3 and KES surface roughness of at least one surface of the fabric sheet, measured as described in the specification, is up to 1.2 μm.