mhurhangee/ep-ind-claims huggingface dataset:
A method for producing a heat transfer tube for a steam generator, wherein when a tube subjected to cold drawing by use of a high-pressure lubricating oil of 40 MPa or more in pressure and to solid solution heat treatment is straightened by use of a roll straightening machine in which at least five pairs of concave globoidal drum type straightening rolls are provided, each pair of rolls being arranged opposite to each other in a vertical direction and in a crossing manner where directions of rotating shafts cross each other, and in which a stand interval is set at 300 mm or less, the tube is subjected to offsetting that is set at three points along a tube axial centerline as being crossing positions of at least successive three pairs of upper and lower straightening rolls of the roll straightening machine and that allows η expressed by Formula described below to satisfy 0.9 × 10 -3 or more and to ensure an offset amount of 5 mm or less: η = 1 / R × d / 2 where given that an outside diameter of the tube is d (mm) and a stand interval of the roll straightening machine is L (mm) and an offset amount is δ (mm), R = (δ 2 + L 2) / 2δ is established.
A molding machine, comprising: a cylinder (12, 82); a pressurization portion (11, 81), applying pressure to resin for releasing the resin filled in the cylinder (12, 82) to the outside of the cylinder (12, 82); and an ultrasonic viscosity sensor, comprising a base, an oscillator embedded in the base, and an ultrasonic vibration portion installed on one end of the oscillator and in contact with the resin filled in the cylinder (12, 82), and the ultrasonic vibration portion protrudes from the base into a gap filled with the resin in the cylinder, such that the ultrasonic vibration portion is physically and directly in contact with the resin. a cylinder (12, 82); a pressurization portion (11, 81), applying pressure to resin for releasing the resin filled in the cylinder (12, 82) to the outside of the cylinder (12, 82); and an ultrasonic viscosity sensor, comprising a base, an oscillator embedded in the base, and an ultrasonic vibration portion installed on one end of the oscillator and in contact with the resin filled in the cylinder (12, 82), and the ultrasonic vibration portion protrudes from the base into a gap filled with the resin in the cylinder, such that the ultrasonic vibration portion is physically and directly in contact with the resin.
A method of determining a candidate ablation location using historical ablation data, the method comprising: generating a database including a plurality of ablation records, each ablation record of the plurality of ablation records associated with a corresponding ablation procedure; generating a set of probability parameters associated with different types of conditions and different types of patients, and describing each ablation record of the plurality of ablation records; developing, using a regression analysis, an algorithm based upon the sets of probability parameters for the plurality of ablation records; and for a candidate ablation procedure: receiving a plurality of patient parameters associated with a patient receiving the candidate ablation procedure; determining at least one candidate condition associated with the patient and a respective probability associated with each candidate condition; applying the algorithm to determine at least one candidate ablation location and a probability that ablating in the at least one candidate ablation location will be successful based upon the respective probabilities associated with the at least one candidate condition; and displaying the at least one candidate ablation location on a visual interface of a cardiac mapping system. generating a database including a plurality of ablation records, each ablation record of the plurality of ablation records associated with a corresponding ablation procedure; generating a set of probability parameters associated with different types of conditions and different types of patients, and describing each ablation record of the plurality of ablation records; developing, using a regression analysis, an algorithm based upon the sets of probability parameters for the plurality of ablation records; and for a candidate ablation procedure: receiving a plurality of patient parameters associated with a patient receiving the candidate ablation procedure; determining at least one candidate condition associated with the patient and a respective probability associated with each candidate condition; applying the algorithm to determine at least one candidate ablation location and a probability that ablating in the at least one candidate ablation location will be successful based upon the respective probabilities associated with the at least one candidate condition; and displaying the at least one candidate ablation location on a visual interface of a cardiac mapping system. receiving a plurality of patient parameters associated with a patient receiving the candidate ablation procedure; determining at least one candidate condition associated with the patient and a respective probability associated with each candidate condition; applying the algorithm to determine at least one candidate ablation location and a probability that ablating in the at least one candidate ablation location will be successful based upon the respective probabilities associated with the at least one candidate condition; and displaying the at least one candidate ablation location on a visual interface of a cardiac mapping system.
A method of video-signal streaming comprising: employing a server comprising at least one physical processor to perform processes of: acquiring from a panoramic multimedia source a panoramic video signal; processing the panoramic video signal to generate a pure video signal accurately representing a respective captured panorama; transcoding the pure video signal to produce a transcoded signal compatible with a client device; generating a signal sample of a constant flow rate comprising a set of distant frames of the transcoded signal, where consecutive frames of said set of distant frames are separated by a time interval selected so that said constant flow rate does not exceed a permissible flow rate; transmitting the signal sample of the transcoded signal to the client device; receiving, from the client device, an identifier of a preferred view region; content-filtering the transcoded signal to produce a content-filtered signal corresponding to the preferred view region; and sending the content-filtered signal to the client device. acquiring from a panoramic multimedia source a panoramic video signal; processing the panoramic video signal to generate a pure video signal accurately representing a respective captured panorama; transcoding the pure video signal to produce a transcoded signal compatible with a client device; generating a signal sample of a constant flow rate comprising a set of distant frames of the transcoded signal, where consecutive frames of said set of distant frames are separated by a time interval selected so that said constant flow rate does not exceed a permissible flow rate; transmitting the signal sample of the transcoded signal to the client device; receiving, from the client device, an identifier of a preferred view region; content-filtering the transcoded signal to produce a content-filtered signal corresponding to the preferred view region; and sending the content-filtered signal to the client device.
Manual machine tool having a drive motor, a gearbox and a tool holder, wherein a motor drive of the drive motor with a gearbox drive of the gearbox and a gearbox output of the gearbox which can be rotated about a rotational axis is coupled to the tool holder in a manner which permits rotation, wherein the manual machine tool has an actuating device to adjust the gearbox between its switch positions (S1, S2, S3, S4) in which the speed ratios between the gearbox drive and the gearbox output are different, wherein the actuating device has an actuating part which is movably mounted relative to a machine housing of the manual machine tool between actuating positions (B1, B2, B3, B4) assigned to the switch positions (S1, S2, S3, S4) of the gearbox and which can be manually actuated by an operator of the manual machine tool, which is coupled to the at least one switching gear element (101, 102) by means of a coupling element to set the switch positions (S1, S2, S3, S4), wherein the actuating device used to lock the actuating part in the actuating positions (B1, B2, B3, B4) has a locking arrangement with locking indentations arranged on a locking structure which are assigned to actuating positions (B1, B2, B3, B4) of the actuating part and with a locking part to engage in the locking indentations, and in that the locking structure has a control surface arrangement with gliding surfaces (168, 169) along which the locking part can glide and which extend starting from at last two locking indentations to a vertex (166, 167) which is arranged between the locking indentations and protrudes in front of the locking indentations, wherein the locking part has an unstable position on the vertex (166, 167) such that the locking part is guided past the vertex (166, 167) into one of the locking indentations adjacent to the vertex (166, 167), characterised in that the locking structure has at least three or four locking indentations, between which a vertex (166, 167) is arranged in each case, on which vertex the locking part has an unstable position and from which vertex a gliding surface (168, 169) extends out to the respective locking indentation in each case.
Method for controlling a beverage preparation machine, comprising: - preparing a first beverage of a predetermined beverage type having a first value of a beverage preparation parameter; - preparing a second beverage of an identical beverage type having a second value of the beverage preparation parameter which differs from the first value; - displaying a selection of the first and the second beverage for user input - receiving a user input which indicates the first or the second beverage; and - storing (105, 106) the beverage preparation parameter of the specified beverage as a default for preparing the beverage of the predetermined beverage type for future preparations. - preparing a first beverage of a predetermined beverage type having a first value of a beverage preparation parameter; - preparing a second beverage of an identical beverage type having a second value of the beverage preparation parameter which differs from the first value; - displaying a selection of the first and the second beverage for user input - receiving a user input which indicates the first or the second beverage; and - storing (105, 106) the beverage preparation parameter of the specified beverage as a default for preparing the beverage of the predetermined beverage type for future preparations.
A method for predicting remaining useful lifetime of a bearing (130a, 130b) of an electric podded azimuth thruster, the method being performed by a controller, the method comprising: obtaining operational conditions of the bearing (130a, 130b); and predicting the remaining useful lifetime of the bearing (130a, 130b) using the operational conditions, characterized in that the lifetime of the bearing (130a, 130b) is divided in three separate phases, and wherein the remaining useful lifetime of the bearing (130a, 130b) is predicted differently in the three separate phases, wherein the three separate phases include a prehistory phase, a moment of fault detection phase, and faulty bearing phase, wherein, during the prehistory phase, prehistory data is used to predict the remaining useful lifetime of the bearing (130a, 130b) according to a model based on a Cox proportional hazard function approach applied with a three-parameter Weibull model, and wherein, during the faulty bearing phase, the prediction of the remaining useful lifetime of the bearing (130a, 130b) is based on features extracted from vibration signals and/or oil analysis results. obtaining operational conditions of the bearing (130a, 130b); and predicting the remaining useful lifetime of the bearing (130a, 130b) using the operational conditions, characterized in that the lifetime of the bearing (130a, 130b) is divided in three separate phases, and wherein the remaining useful lifetime of the bearing (130a, 130b) is predicted differently in the three separate phases, wherein the three separate phases include a prehistory phase, a moment of fault detection phase, and faulty bearing phase, wherein, during the prehistory phase, prehistory data is used to predict the remaining useful lifetime of the bearing (130a, 130b) according to a model based on a Cox proportional hazard function approach applied with a three-parameter Weibull model, and wherein, during the faulty bearing phase, the prediction of the remaining useful lifetime of the bearing (130a, 130b) is based on features extracted from vibration signals and/or oil analysis results.
An apparatus for enhancing impregnation of an electrolyte injected in a battery cell of a secondary battery, said battery cell being sealed after the injection of said electrolyte therein, the apparatus comprising: a tray adapted to receive at least one sealed battery cell; and an oscillation and rotation unit capable of oscillating and rotating the tray simultaneously, wherein the oscillation and rotation unit includes: a chamber (20, 120) to which the tray is mounted; an oscillation member installed to the chamber (20, 120) to oscillate the tray with a predetermined oscillation frequency; and a rotation member for rotating the chamber (20, 120) with a predetermined number of rotations, wherein the oscillation member includes at least one oscillator (42a, 42b) installed to the chamber so that the oscillator (42a, 42b) adheres closely to the tray. a tray adapted to receive at least one sealed battery cell; and an oscillation and rotation unit capable of oscillating and rotating the tray simultaneously, a chamber (20, 120) to which the tray is mounted; an oscillation member installed to the chamber (20, 120) to oscillate the tray with a predetermined oscillation frequency; and a rotation member for rotating the chamber (20, 120) with a predetermined number of rotations,
Use of a feed composition or feed additive comprising lauric acid and 3-nitrooxypropanol, for reducing the formation of methane emanating from the digestive activities of ruminants, and/or for improving ruminant performance, wherein the mol ratio of 3-nitrooxypropanol to lauric acid is comprised between 0.0025 and 0.1 and the amount of 3-nitrooxypropanol administered to the ruminant animal is from 1 mg to 10 g per kg feed, and the amount of lauric acid administered to the ruminant animal is from 0.1 to 20 g per Kg of feed.
A monitor comprising: a display device; a first Universal Serial Bus, USB, upstream port; and a second USB upstream port; characterized in that in response to a new host being connected to one of the USB upstream ports when the other of the USB upstream ports has active status by already supporting an active host, the monitor displaying on the display device a prompt to a user to switch active status to the USB upstream port connected to the new host. a display device; a first Universal Serial Bus, USB, upstream port; and a second USB upstream port; characterized in that in response to a new host being connected to one of the USB upstream ports when the other of the USB upstream ports has active status by already supporting an active host, the monitor displaying on the display device a prompt to a user to switch active status to the USB upstream port connected to the new host.
An isolated antibody or fragment thereof that binds to PD-L1, wherein the antibody or fragment thereof comprises a heavy chain variable region comprising an amino acid sequence of SEQ ID NO: 42; and a light chain variable region comprising an amino acid sequence of SEQ ID NO: 44.
A rearing method of producing an aquaculture shrimp with long unbroken second antennae being longer than the body length carried out by land-farming in an overcrowded state, comprising giving feed containing greater than or equal to 50 ppm of astaxanthin, wherein the shrimp is classified in the superfamily Penaeoidea of order Decapoda.
A turbine component internal heating system comprising: at least one turbine component support platform that supports a turbine component having one or more internal cavities by temporarily engaging at least a side wall for the turbine component; and, at least one heat source that extends from the at least one turbine component support platform, wherein when the at least one turbine component support platform supports the turbine component, the at least one heat source is at least partially disposed within at least one of the one or more internal cavities such that it can heat the turbine component from the inside. at least one turbine component support platform that supports a turbine component having one or more internal cavities by temporarily engaging at least a side wall for the turbine component; and, at least one heat source that extends from the at least one turbine component support platform, wherein when the at least one turbine component support platform supports the turbine component, the at least one heat source is at least partially disposed within at least one of the one or more internal cavities such that it can heat the turbine component from the inside.
A combination pharmaceutical agent, comprising as active ingredients a farnesoid X receptor agonist (FXR agonist) or a pharmaceutically acceptable salt thereof and an angiotensin II receptor blocker or a pharmaceutically acceptable salt thereof, wherein the FXR agonist is obeticholic acid.
A mobile concrete pump with a support structure being placed on a vehicle frame of a truck chassis and comprising functional units which form a support device and a distributing boom, wherein the functional unit which forms the distributing boom has a rotary head mounted on a boom pedestal in a rotatable manner about a vertical axis, said boom pedestal being secured to the support structure, and the boom pedestal comprises a shell which engages in the support structure and is provided as a rotary bearing for the rotary head, and wherein the functional units forming the support device have a respective support leg (20, 22, 22') mounted in a bearing (52, 54) in a pivotable and/or telescopable manner, said bearing being secured to the support structure, characterized in that the shell, with a shell wall which tapers in cross section from top to bottom in the shape of a truncated cone or truncated pyramid, engages in the support structure and is rigidly inserted therein.
A tire comprising a tire body, wherein the tire body has a plurality of cavities along a circumferential direction, each of the plurality of cavities has an opening located on an inner circumferential surface of the tire body, a connecting portion is formed between adjacent openings, the connecting portion comprises a middle connecting portion and an end connecting portion distributed along a width direction of the tire body, and a width of the middle connecting portion is constant, wherein a convex rib is arranged on a cavity wall of each of the plurality of cavities opposite to the corresponding opening, and each of said convex ribs protrudes toward its opening and extends along the circumferential direction of the tire body, characterized in that in a cross section of the tire body through one of the plurality of cavities, the convex rib has the following parameters: a ratio L1 /H of a distance L1 from a top of the convex rib to the outer circumferential surface of the tire body to the maximum height H of the tire body is in the range: 1/4 ≤ L1/H ≤ 1/2, a ratio H1/H of a height H1 of the convex rib to the maximum height H of the tire body is in the range: 1/16 ≤H1/H ≤1/4, and a ratio of the maximum width L2 of the convex rib to the maximum width L of the tire body is in the range: 1/4 ≤ L2/L ≤3/4. wherein the tire body has a plurality of cavities along a circumferential direction, each of the plurality of cavities has an opening located on an inner circumferential surface of the tire body, a connecting portion is formed between adjacent openings, the connecting portion comprises a middle connecting portion and an end connecting portion distributed along a width direction of the tire body, and a width of the middle connecting portion is constant, wherein a convex rib is arranged on a cavity wall of each of the plurality of cavities opposite to the corresponding opening, and each of said convex ribs protrudes toward its opening and extends along the circumferential direction of the tire body, characterized in that in a cross section of the tire body through one of the plurality of cavities, the convex rib has the following parameters: a ratio L1 /H of a distance L1 from a top of the convex rib to the outer circumferential surface of the tire body to the maximum height H of the tire body is in the range: 1/4 ≤ L1/H ≤ 1/2, a ratio H1/H of a height H1 of the convex rib to the maximum height H of the tire body is in the range: 1/16 ≤H1/H ≤1/4, and a ratio of the maximum width L2 of the convex rib to the maximum width L of the tire body is in the range: 1/4 ≤ L2/L ≤3/4. a ratio L1 /H of a distance L1 from a top of the convex rib to the outer circumferential surface of the tire body to the maximum height H of the tire body is in the range: 1/4 ≤ L1/H ≤ 1/2, a ratio H1/H of a height H1 of the convex rib to the maximum height H of the tire body is in the range: 1/16 ≤H1/H ≤1/4, and a ratio of the maximum width L2 of the convex rib to the maximum width L of the tire body is in the range: 1/4 ≤ L2/L ≤3/4.
A method for detecting defects in an anisotropic rotor blade (50, 200) using a phased array ultrasound system, the anisotropic rotor blade extending along an axial centerline and comprising a mounting portion and an airfoil, the method comprising: positioning (402, 502) a probe of the phased array ultrasound system on the mounting portion of the anisotropic rotor blade at the axial centerline; scanning (404, 504) a sector of the anisotropic rotor blade (50, 200) along the axial centerline with the probe of the phased array ultrasound system, a geometric fiducial marker disposed at least partially within the sector of the anisotropic rotor blade; determining (406, 506) a magnitude and a time delay of an echo signal corresponding with the geometric fiducial marker; adjusting (408, 508) a position of one of the anisotropic rotor blade (50, 200) or the probe based on the magnitude of the echo signal corresponding with the geometric fiducial marker; and repeating (410, 510) the scanning, determining, and adjusting steps until the magnitude and the time delay of the echo signal corresponding with the geometric fiducial marker is within a predetermined maximum echo range; and scanning the anisotropic rotor blade for defects. positioning (402, 502) a probe of the phased array ultrasound system on the mounting portion of the anisotropic rotor blade at the axial centerline; scanning (404, 504) a sector of the anisotropic rotor blade (50, 200) along the axial centerline with the probe of the phased array ultrasound system, a geometric fiducial marker disposed at least partially within the sector of the anisotropic rotor blade; determining (406, 506) a magnitude and a time delay of an echo signal corresponding with the geometric fiducial marker; adjusting (408, 508) a position of one of the anisotropic rotor blade (50, 200) or the probe based on the magnitude of the echo signal corresponding with the geometric fiducial marker; and repeating (410, 510) the scanning, determining, and adjusting steps until the magnitude and the time delay of the echo signal corresponding with the geometric fiducial marker is within a predetermined maximum echo range; and scanning the anisotropic rotor blade for defects.