mhurhangee/patent-ind-claim-en huggingface dataset:
A method for producing a silica aerogel blanket, the method comprising: performing supercritical drying by setting an injection temperature of CO 2 which is injected into an extractor containing silica wet gel to 0-30°C, the drying temperature of the supercritical drying is 40-90°C; and reusing supercritical waste liquid recovered after the supercritical drying in one or more steps selected from the group consisting of gelation catalyst solution preparation, aging, and surface modification, wherein the ammonium ions contained in the recovered supercritical waste liquid is 200 mg/kg or less. performing supercritical drying by setting an injection temperature of CO 2 which is injected into an extractor containing silica wet gel to 0-30°C, the drying temperature of the supercritical drying is 40-90°C; and reusing supercritical waste liquid recovered after the supercritical drying in one or more steps selected from the group consisting of gelation catalyst solution preparation, aging, and surface modification, wherein the ammonium ions contained in the recovered supercritical waste liquid is 200 mg/kg or less.
A medical apparatus for insertion into a subject, the medical apparatus comprising: a handle portion ; a moveable component configured to be inserted into the subject; a rotatable component disposed in the handle portion and operatively coupled to the moveable component to produce axial movement of the moveable component relative to the handle portion upon rotation of the rotatable component ; a motor disposed in the handle portion and operatively coupled to the rotatable component to produce rotation of the rotatable component and corresponding axial movement of the moveable component ; and a pull cord configured to produce rotation of the rotatable component and corresponding axial movement of the moveable component when a manual pulling force is applied to the pull cord to pull the pull cord relative to the rotatable component . a handle portion ; a moveable component configured to be inserted into the subject; a rotatable component disposed in the handle portion and operatively coupled to the moveable component to produce axial movement of the moveable component relative to the handle portion upon rotation of the rotatable component ; a motor disposed in the handle portion and operatively coupled to the rotatable component to produce rotation of the rotatable component and corresponding axial movement of the moveable component ; and a pull cord configured to produce rotation of the rotatable component and corresponding axial movement of the moveable component when a manual pulling force is applied to the pull cord to pull the pull cord relative to the rotatable component .
Method of determining an inclination angle (Inc) of a wind turbine tower at which a nacelle is mounted, the method comprising: measuring plural acceleration values (Ay) of an acceleration of the nacelle in a predetermined direction relative to the nacelle for plural yawing positions (Nac_pos) of the nacelle ; deriving the inclination angle based on the plural acceleration values comprising: averaging acceleration values in each yawing position bin of plural yawing position bins to obtain for each yawing position bin an associated averaged acceleration value ; deriving the inclination angle (Inc) based on the averaged acceleration values, wherein the nacelle is continuously rotated around a yawing axis while measuring the acceleration. measuring plural acceleration values (Ay) of an acceleration of the nacelle in a predetermined direction relative to the nacelle for plural yawing positions (Nac_pos) of the nacelle ; deriving the inclination angle based on the plural acceleration values comprising: averaging acceleration values in each yawing position bin of plural yawing position bins to obtain for each yawing position bin an associated averaged acceleration value ; deriving the inclination angle (Inc) based on the averaged acceleration values, wherein the nacelle is continuously rotated around a yawing axis while measuring the acceleration. averaging acceleration values in each yawing position bin of plural yawing position bins to obtain for each yawing position bin an associated averaged acceleration value ; deriving the inclination angle (Inc) based on the averaged acceleration values,
A method comprising: receiving, at a service, data regarding administration traffic in a network associated with a remote administration session in which a control device remotely administers a client device , wherein the received data comprises telemetry data , and wherein the received data further comprises device data for the control device and/or user information for the control device ; analyzing, by the service, the received data to determine whether the administration traffic is authorized, wherein the analyzing comprises correlating the telemetry data with the device data and/or the user information ; flagging, by the service, the received data as authorized, based on the analysis of the received data; and using, by the service, the data flagged as authorized to distinguish between benign traffic and malicious traffic in the network , wherein the using comprises excluding, by the service, the data flagged as authorized from analysis by a machine learning-based traffic analyzer configured to distinguish between benign traffic and malicious traffic; or wherein the using comprises suppressing, by the service, performance of a mitigation action by the traffic analyzer that was triggered by the traffic analyzer analyzing the flagged data. receiving, at a service, data regarding administration traffic in a network associated with a remote administration session in which a control device remotely administers a client device , wherein the received data comprises telemetry data , and wherein the received data further comprises device data for the control device and/or user information for the control device ; analyzing, by the service, the received data to determine whether the administration traffic is authorized, wherein the analyzing comprises correlating the telemetry data with the device data and/or the user information ; flagging, by the service, the received data as authorized, based on the analysis of the received data; and using, by the service, the data flagged as authorized to distinguish between benign traffic and malicious traffic in the network , wherein the using comprises excluding, by the service, the data flagged as authorized from analysis by a machine learning-based traffic analyzer configured to distinguish between benign traffic and malicious traffic; or wherein the using comprises suppressing, by the service, performance of a mitigation action by the traffic analyzer that was triggered by the traffic analyzer analyzing the flagged data.
A pesticidal mixture comprising an effective amount of sabadilla alkaloids and Bacillus thuringiensis, wherein Bacillus thuringiensis consists of a subspecies selected from the group consisting of Bacillus thuringiensis aizawai, Bacillus thuringiensis kurstaki, and combinations thereof, and wherein the ratio of sabadilla alkaloids to Bacillus thuringiensis is from about 1:1 to about 1:100.
An error correction code circuit , comprising: a first error correction code circuit configured to generate correction data and first correction check bits according to received source data and received source check bits corresponding to the received source data; a second error correction code circuit connected to the first error correction code circuit, and configured to, according to the generated correction data and the received source check bits, determine whether the generated correction data is wrong and generate second correction check bits; and a comparison circuit connected with the first error correction code circuit and the second error correction code circuit , and configured to compare the generated first correction check bits with the generated second correction check bits in order to determine whether the generated first correction check bits are wrong, wherein each of the first error correction code circuit and the second error correction code circuit includes a single-error correction and double-error-detecting SEC-DED, circuit. a first error correction code circuit configured to generate correction data and first correction check bits according to received source data and received source check bits corresponding to the received source data; a second error correction code circuit connected to the first error correction code circuit, and configured to, according to the generated correction data and the received source check bits, determine whether the generated correction data is wrong and generate second correction check bits; and a comparison circuit connected with the first error correction code circuit and the second error correction code circuit , and configured to compare the generated first correction check bits with the generated second correction check bits in order to determine whether the generated first correction check bits are wrong, wherein each of the first error correction code circuit and the second error correction code circuit includes a single-error correction and double-error-detecting SEC-DED, circuit.
A radiology device comprising a support capable of translational movement along an axis of translation relative to a frame of the device , the support being intended to support an object that is to be imaged, an ionising-ray generator (20; 30) and a detector (22; 32) configured to detect the rays emitted by the generator (20; 30), the generator (20; 30) and the detector (22; 32) facing one another, the generator (20; 30) comprising several sources each considered to emit from a focal point, the focal points of the various sources being distributed along an axis of the sources (26; 36), the detector (22; 32) extending along an axis of the detector (28; 38), the axis of the sources (26; 36) and the axis of the detector (28; 38) extending in the form of mutually intertwined helices about the axis of translation , each of the sources emitting a substantially flat and fan-shaped beam of ionising rays , the device further comprising a collimator having, facing each source , a slot configured to obtain the fan-shaped beam and produced in a plane of the collimator that is parallel to the axis of translation , the collimator extending mainly along an axis of the collimator parallel to the axis of the sources (26; 36), wherein the slots are not secant and characterised in that the slots (52; 56; 58) each extend mainly along a curve portion (52a; 56a; 58a) defined in the plane of the collimator and in that the projections, perpendicular to the axis of the collimator , of curve portions, corresponding to consecutive slots, onto the axis of the collimator , have a part (52b; 56b; 58b) in common.
A filtering method for applying a deblocking filter to a sample in a current block of an image, the filtering method comprising: judging whether a strong filter or a weak filter is to be applied to a boundary between the current block and a neighboring block adjacent to the current block; calculating a linear combination of current samples including said sample in the current block and adjacent samples in the neighboring block, the current samples and the adjacent samples forming a line of samples; adding an offset to the linear combination; shifting the linear combination right by a predetermined number of bits; and clipping the shifted linear combination, wherein the clipping for the strong filter is controlled by a first clipping parameter and the clipping for the weak filter is controlled by a second clipping parameter, the first clipping parameter and the second clipping parameter depending on a strength of the boundary but having a different value with each other. judging whether a strong filter or a weak filter is to be applied to a boundary between the current block and a neighboring block adjacent to the current block; calculating a linear combination of current samples including said sample in the current block and adjacent samples in the neighboring block, the current samples and the adjacent samples forming a line of samples; adding an offset to the linear combination; shifting the linear combination right by a predetermined number of bits; and clipping the shifted linear combination, wherein the clipping for the strong filter is controlled by a first clipping parameter and the clipping for the weak filter is controlled by a second clipping parameter, the first clipping parameter and the second clipping parameter depending on a strength of the boundary but having a different value with each other.
Laundry care appliance having a tub for receiving water and a drain pump for pumping water, wherein the drain pump has a pump pressure chamber and a first discharge port fluidically connected to the pump pressure chamber for discharging water under pressure, and having a variable-speed pump drive for driving the drain pump , characterised in that a second discharge port for discharging water under pressure is fluidically connected to the pump pressure chamber , wherein the first and second discharge ports tangentially abut the pump pressure chamber , wherein the drain pump has a further pump pressure chamber and a third discharge port fluidically connected to the further pump pressure chamber for discharging water under pressure, in particular a drain port for draining water or a transfer port for transferring water into the tub , wherein the drain pump has a suction chamber and a suction port fluidly connected to the suction chamber , wherein the suction chamber is fluidically connected to the respective pump pressure chamber of the drain pump , and wherein a partition wall is arranged in each case between the suction chamber and the respective pump pressure chamber , such that foreign bodies in the suction chamber are held back and the pump function in the pressure chamber is not affected.
Apparatus for processing a biological sample, the apparatus comprising the following features: a first substrate with a first cavity which forms a first chamber portion of a chamber for receiving the biological sample; a second substrate with a second cavity which forms a second chamber portion of the chamber for receiving the biological sample; a filter element with a plurality of perforations , the filter element being embodied between the first cavity and the second cavity in order to hold back a plurality of organic cells of the biological sample at the plurality of perforations when moving the biological sample between the first cavity and the second cavity through the filter element ; and an electrically conductive structure which is arranged at the filter element and embodied to bring about lysis of the organic cells and/or to duplicate and/or detect defined sections of the exposed DNA. a first substrate with a first cavity which forms a first chamber portion of a chamber for receiving the biological sample; a second substrate with a second cavity which forms a second chamber portion of the chamber for receiving the biological sample; a filter element with a plurality of perforations , the filter element being embodied between the first cavity and the second cavity in order to hold back a plurality of organic cells of the biological sample at the plurality of perforations when moving the biological sample between the first cavity and the second cavity through the filter element ; and an electrically conductive structure which is arranged at the filter element and embodied to bring about lysis of the organic cells and/or to duplicate and/or detect defined sections of the exposed DNA.
An agricultural vehicle cab having: a cab window section ; and a roof section provided on top of the cab; wherein at least a portion of the roof section is moveable relative to the cab window section to shade the interior of the cab, characterized in that the agricultural vehicle cab has a sun sensor provided on the roof section , wherein the movement of the said at least a portion of the roof section is controlled based on the position of the sun determined by the sun sensor and wherein the agricultural vehicle cab comprises a first actuator to effect longitudinal movement of the roof section relative to the cab window section , and wherein the agricultural vehicle cab comprises a second actuator to effect lateral or transverse movement of the roof section relative to the cab window section . a cab window section ; and a roof section provided on top of the cab; wherein at least a portion of the roof section is moveable relative to the cab window section to shade the interior of the cab, characterized in that the agricultural vehicle cab has a sun sensor provided on the roof section , wherein the movement of the said at least a portion of the roof section is controlled based on the position of the sun determined by the sun sensor and wherein the agricultural vehicle cab comprises a first actuator to effect longitudinal movement of the roof section relative to the cab window section , and wherein the agricultural vehicle cab comprises a second actuator to effect lateral or transverse movement of the roof section relative to the cab window section .
A method for a user management in a power plant control system for a power plant system comprising a plurality of entities, the power plant control system comprising a central server and a plurality of local servers wherein the central server is configured to manage the plurality of local servers and the local servers are configured to manage the entities, the method comprising the steps of: processing , by a central processor of the central server , a credential of a user (141-146) and comparing the credential with a certificate (181-186) stored in the central server , wherein the credential comprises data related to a qualification of the user (141-146) and defines the qualification of the user (141-146) to the specific user role (151-158). assigning a specific user role (151-158) from a plurality of user roles (151-158) to the user (141-146) having the certificate (181-186) matching with the credential by the central server of the power plant control system, wherein the assigned user role (151-158) defines a task to be performed by the user (141- 146); generating a list (191-193) comprising information about the user (141-146) and the assigned user role (151-158) by the central server , and providing the list (191-193) by the central server to a local server for performing the task defined in the assigned user role (151-158) on an entity managed by the local server . processing , by a central processor of the central server , a credential of a user (141-146) and comparing the credential with a certificate (181-186) stored in the central server , wherein the credential comprises data related to a qualification of the user (141-146) and defines the qualification of the user (141-146) to the specific user role (151-158). assigning a specific user role (151-158) from a plurality of user roles (151-158) to the user (141-146) having the certificate (181-186) matching with the credential by the central server of the power plant control system, wherein the assigned user role (151-158) defines a task to be performed by the user (141- 146); generating a list (191-193) comprising information about the user (141-146) and the assigned user role (151-158) by the central server , and providing the list (191-193) by the central server to a local server for performing the task defined in the assigned user role (151-158) on an entity managed by the local server .
A system comprising: a blood fluid removal device comprising (i) an inlet for receiving blood from a patient, (ii) an outlet for returning blood to the patient, (iii) a medium for removing fluid and contaminants from the blood, the medium being positioned between the inlet and the outlet, (iv) a source of dialysate, and (v) a fluid path carrying the dialysate from the source to the medium; a concentrate source housing a concentrate solution comprising concentrated electrolyte or pH buffer; a concentrate flow control element configured to control the rate at which the concentrate solution enters the fluid path from the concentrate source; characterized by : a first sensor configured to monitor an indicator of blood electrolyte concentration or blood pH in the blood before the blood enters the medium; a second sensor configured to monitor an indicator of blood electrolyte concentration or blood pH in the blood after the blood exits the medium; and control electronics in operable communication with the first and second sensors and the concentrate flow control element, wherein the control electronics are configured to compare data acquired from the first sensor to data acquired from the second sensor and wherein the control electronics are configured to adjust the rate at which the concentrate solution enters the fluid path based on the comparison of the data acquired from the first sensor and the second sensor . a blood fluid removal device comprising (i) an inlet for receiving blood from a patient, (ii) an outlet for returning blood to the patient, (iii) a medium for removing fluid and contaminants from the blood, the medium being positioned between the inlet and the outlet, (iv) a source of dialysate, and (v) a fluid path carrying the dialysate from the source to the medium; (i) an inlet for receiving blood from a patient, (ii) an outlet for returning blood to the patient, (iii) a medium for removing fluid and contaminants from the blood, the medium being positioned between the inlet and the outlet, (iv) a source of dialysate, and (v) a fluid path carrying the dialysate from the source to the medium; a concentrate source housing a concentrate solution comprising concentrated electrolyte or pH buffer; a concentrate flow control element configured to control the rate at which the concentrate solution enters the fluid path from the concentrate source; characterized by : a first sensor configured to monitor an indicator of blood electrolyte concentration or blood pH in the blood before the blood enters the medium; a second sensor configured to monitor an indicator of blood electrolyte concentration or blood pH in the blood after the blood exits the medium; and control electronics in operable communication with the first and second sensors and the concentrate flow control element, wherein the control electronics are configured to compare data acquired from the first sensor to data acquired from the second sensor and wherein the control electronics are configured to adjust the rate at which the concentrate solution enters the fluid path based on the comparison of the data acquired from the first sensor and the second sensor .
A method of testing for package leaks by a test system (300; 500) that includes a vacuum source (310; 510), a test chamber (340; 540) in which a package is received for testing, and a valve (302; 502) for selectively isolating the test chamber (340; 540) from the vacuum source (310; 510), the method comprising: placing a package in a test chamber (340; 540); evacuating air from the test chamber (340; 540) by a vacuum source (310; 510); detecting a trigger pressure as the test system (300; 500) approaches a target pressure, wherein the trigger pressure is higher than the target pressure; initiating a timer by a computer upon detecting the trigger pressure; isolating the test chamber (340; 540) from the vacuum source (310; 510) upon expiration of the timer; and subsequently initiating a test detecting the presence or absence of a leak in the package based on pressure measurements in the test system (300; 500). placing a package in a test chamber (340; 540); evacuating air from the test chamber (340; 540) by a vacuum source (310; 510); detecting a trigger pressure as the test system (300; 500) approaches a target pressure, wherein the trigger pressure is higher than the target pressure; initiating a timer by a computer upon detecting the trigger pressure; isolating the test chamber (340; 540) from the vacuum source (310; 510) upon expiration of the timer; and subsequently initiating a test detecting the presence or absence of a leak in the package based on pressure measurements in the test system (300; 500).