mhurhangee/ep-ind-claims huggingface dataset:
A method of calculating residual stress, the method calculating residual stress of a metal sheet subjected to plastic deformation and comprising: a strain history acquisition step of measuring strain of a deformed portion of the metal sheet in a deformation process of plastically deforming the metal sheet and acquiring a strain history of the measured strain, characterised in that it is further comprising: a sequential stress updating step of calculating a stress increment of the deformed portion in the deformation process according to a material constitutive model using an acquired strain increment calculated from the strain history and an assumed strain increment calculated, by assuming a deformation state of the deformed portion, from strain other than the strain from which the strain history is acquired, and sequentially updating stress from a start to an end of deformation of the deformed portion using the calculated stress increment; and a residual stress determination step of determining, as residual stress of the deformed portion, the stress of the deformed portion at the end of the deformation in the deformation process among the stresses sequentially updated in the sequential stress updating step. a strain history acquisition step of measuring strain of a deformed portion of the metal sheet in a deformation process of plastically deforming the metal sheet and acquiring a strain history of the measured strain, characterised in that it is further comprising: a sequential stress updating step of calculating a stress increment of the deformed portion in the deformation process according to a material constitutive model using an acquired strain increment calculated from the strain history and an assumed strain increment calculated, by assuming a deformation state of the deformed portion, from strain other than the strain from which the strain history is acquired, and sequentially updating stress from a start to an end of deformation of the deformed portion using the calculated stress increment; and a residual stress determination step of determining, as residual stress of the deformed portion, the stress of the deformed portion at the end of the deformation in the deformation process among the stresses sequentially updated in the sequential stress updating step. a sequential stress updating step of calculating a stress increment of the deformed portion in the deformation process according to a material constitutive model using an acquired strain increment calculated from the strain history and an assumed strain increment calculated, by assuming a deformation state of the deformed portion, from strain other than the strain from which the strain history is acquired, and sequentially updating stress from a start to an end of deformation of the deformed portion using the calculated stress increment; and a residual stress determination step of determining, as residual stress of the deformed portion, the stress of the deformed portion at the end of the deformation in the deformation process among the stresses sequentially updated in the sequential stress updating step.
A vehicle battery unit comprising: a battery; and a battery case which accommodates the battery and which is disposed underneath a floor panel, wherein: the battery is cooled by cooling air introduced from an air intake port; and a cooling space which communicates with the air intake port is formed as a separate space from a battery accommodation space where the battery is accommodated in the battery case, characterized in that an upper plate on an upper surface of which the battery is mounted, a lower plate, and a heat sink which is disposed between the upper plate and the lower plate are located in the cooling space. a battery; and a battery case which accommodates the battery and which is disposed underneath a floor panel, wherein: the battery is cooled by cooling air introduced from an air intake port; and a cooling space which communicates with the air intake port is formed as a separate space from a battery accommodation space where the battery is accommodated in the battery case, characterized in that an upper plate on an upper surface of which the battery is mounted, a lower plate, and a heat sink which is disposed between the upper plate and the lower plate are located in the cooling space. the battery is cooled by cooling air introduced from an air intake port; and a cooling space which communicates with the air intake port is formed as a separate space from a battery accommodation space where the battery is accommodated in the battery case, characterized in that an upper plate on an upper surface of which the battery is mounted, a lower plate, and a heat sink which is disposed between the upper plate and the lower plate are located in the cooling space.
A hydraulic connection mechanism for use in a wellbore comprising: an upper connection tool comprising a first flow line; a lower connection tool comprising a second flow line and a circumferential groove, wherein the second flow line is in fluid communication with the circumferential groove, and wherein the lower connection tool is configured to releasably engage the upper connection tool and form a fluid communication pathway through the hydraulic connection mechanism between the first flow line and the second flow line through the circumferential groove; and a debris barrier disposed in the fluid communication pathway, wherein the debris barrier comprises: a body element; and a spring element configured to maintain the body element in a closed 15 position when the upper connection tool is disengaged from the lower connection tool, wherein the spring element is disposed at least partially within the circumferential groove in the fluid communication pathway. an upper connection tool comprising a first flow line; a lower connection tool comprising a second flow line and a circumferential groove, wherein the second flow line is in fluid communication with the circumferential groove, and wherein the lower connection tool is configured to releasably engage the upper connection tool and form a fluid communication pathway through the hydraulic connection mechanism between the first flow line and the second flow line through the circumferential groove; and a debris barrier disposed in the fluid communication pathway, wherein the debris barrier comprises: a body element; and a spring element configured to maintain the body element in a closed 15 position when the upper connection tool is disengaged from the lower connection tool, wherein the spring element is disposed at least partially within the circumferential groove in the fluid communication pathway. a body element; and a spring element configured to maintain the body element in a closed 15 position when the upper connection tool is disengaged from the lower connection tool, wherein the spring element is disposed at least partially within the circumferential groove in the fluid communication pathway.
An actuator comprising: a cylinder having an axial dimension; a piston axially movable within the cylinder with the cylinder having an upper and lower end (192, 196) which is sealed around the piston; a piston rod extending at a lower end of the piston through a lower opening in the cylinder and having one end of the piston rod connected to a mechanism that is to be actuated; a cavity occupying a space within an upper portion of the cylinder between the piston and an upper end of the cylinder when the mechanism that is to be actuated is in a non-actuated condition; characterized by: a fusible link occupying at least some of the space within the cavity between the piston and the upper end of the cylinder, the fusible link selected to deform or change state at a preselected temperature to enable the piston to move into the cavity; and a spring interposed between a lower end of the piston and the lower end of the cylinder biasing the piston against the fusible link, wherein the piston moves toward the upper end of the cylinder upon the change of state or defamation of the fusible link to actuate the mechanism. a cylinder having an axial dimension; a piston axially movable within the cylinder with the cylinder having an upper and lower end (192, 196) which is sealed around the piston; a piston rod extending at a lower end of the piston through a lower opening in the cylinder and having one end of the piston rod connected to a mechanism that is to be actuated; a cavity occupying a space within an upper portion of the cylinder between the piston and an upper end of the cylinder when the mechanism that is to be actuated is in a non-actuated condition; characterized by: a fusible link occupying at least some of the space within the cavity between the piston and the upper end of the cylinder, the fusible link selected to deform or change state at a preselected temperature to enable the piston to move into the cavity; and a spring interposed between a lower end of the piston and the lower end of the cylinder biasing the piston against the fusible link, wherein the piston moves toward the upper end of the cylinder upon the change of state or defamation of the fusible link to actuate the mechanism. a fusible link occupying at least some of the space within the cavity between the piston and the upper end of the cylinder, the fusible link selected to deform or change state at a preselected temperature to enable the piston to move into the cavity; and a spring interposed between a lower end of the piston and the lower end of the cylinder biasing the piston against the fusible link, wherein the piston moves toward the upper end of the cylinder upon the change of state or defamation of the fusible link to actuate the mechanism.
Method for operating a machine with a tool, wherein the following steps are executed: a) capturing at least one operating data point (S1-S4) for the machine and/or the tool, b) calculating at least one forecast estimate value (F1-F4) from the at least one operating data point (S1-S4) on the basis of an ML model, c) determining an anomaly in the form of a discrete-time anomaly value based on the at least one estimate value (F1-F4) by a comparison with a predetermined comparison value for the at least one estimate and detection of a match for the estimate comparison, d) storing the discrete-time anomaly value in a memory and aggregating the trend in the anomaly value over time to form a smoothed anomaly value, e) comparing the smoothed anomaly value with at least one predetermined comparison value for the anomaly and detecting a match for the anomaly comparison, f) outputting a control operation to the machine on the basis of the smoothed anomaly value. a) capturing at least one operating data point (S1-S4) for the machine and/or the tool, b) calculating at least one forecast estimate value (F1-F4) from the at least one operating data point (S1-S4) on the basis of an ML model, c) determining an anomaly in the form of a discrete-time anomaly value based on the at least one estimate value (F1-F4) by a comparison with a predetermined comparison value for the at least one estimate and detection of a match for the estimate comparison, d) storing the discrete-time anomaly value in a memory and aggregating the trend in the anomaly value over time to form a smoothed anomaly value, e) comparing the smoothed anomaly value with at least one predetermined comparison value for the anomaly and detecting a match for the anomaly comparison, f) outputting a control operation to the machine on the basis of the smoothed anomaly value.
Method for controlling heating of an item to be cleaned during a cleaning process in a cleaning appliance, the method comprising at least the following steps: - reading in a loading signal, which represents at least one loading parameter of items to be cleaned received in the cleaning appliance; - determining a heating signal using the loading signal in order to control heating of the item to be cleaned received in the cleaning appliance after a last main cleaning process using a care product; - characterised by the further step of generating a cold water signal, the cold water signal being generated using the heating signal, the cold water signal being designed to control the introduction of cold water, after heating the item to be cleaned, into a sump of a care product container of the cleaning appliance. - reading in a loading signal, which represents at least one loading parameter of items to be cleaned received in the cleaning appliance; - determining a heating signal using the loading signal in order to control heating of the item to be cleaned received in the cleaning appliance after a last main cleaning process using a care product; - characterised by the further step of generating a cold water signal, the cold water signal being generated using the heating signal, the cold water signal being designed to control the introduction of cold water, after heating the item to be cleaned, into a sump of a care product container of the cleaning appliance.
Drill pipe rod with at least one plug-in-rotation-seat for cooperation with a carrier, wherein the seat comprises an alignment section, a rotation section and a paddle section, wherein the alignment section is located at a lesser distance related to the end of the drill pipe rod at which the plug-in-rotation-seat is formed than the rotation section and the paddle section, and the rotation section is at a closer distance than the paddle section, the alignment section is formed for the longitudinal axial aligning of the drill pipe rod with the carrier, so that it can be plugged in after alignment with each other, the rotation section allows a relative turning of drill pipe rod and carrier around the longitudinal axis of the drill pipe rod, and the paddle section allows a further plugging of the drill pipe rod and carrier relative to each other after the relative turning of the drill pipe rod and carrier, wherein the alignment section has a protrusion from the rotation section in an angle area around the longitudinal axis of the drill pipe rod, in which the carrier can be rotated around the longitudinal axis of the drill pipe rod, wherein the rotation section in which the carrier can be rotated around the longitudinal axis of the drill pipe rod has a longitudinal movement stop surface, which delimits an axial movement of the carrier when this is plugged in, and serves as a support during rotation, and has a rotation movement stop surface arranged in such a way that the carrier is out of contact with the longitudinal movement stop surface when brought into contact with the rotation movement stop surface, and the carrier can be plugged in relative to the paddle section for an additional plugging step for fixing the carrier in a rotation-resistant displacement in both directions around the longitudinal axis of the drill pipe rod.
A fungicidal aqueous suspension composition for agriculture and horticulture, comprising: component: tert-butyl {6-{[ -(1-methy1-1H-5-tetrazolyl)phenylmethylene] aminooxymethyl}-2-pyridyl}carbamate; component: at least one type of compound selected from the group consisting of a polyoxyalkylene alkyl ether, polyoxyalkylene fatty acid ester, polyoxyalkylene sorbitan fatty acid ester and silicone-based surfactant, wherein the polyoxyalkylene alkyl ether of component is a polyoxyethylene castor oil ether, polyoxypropylene castor oil ether or polyoxyethylene polyoxypropylene castor oil ether, the polyoxyalkylene fatty acid ester of component is a polyoxyalkylene oleic acid ester or polyoxyalkylene lauric acid ester, the polyoxyalkylene sorbitan fatty acid ester of component is a polyoxyalkylene sorbitan monooleic acid ester or polyoxyalkylene sorbitan monolauric acid ester, and the silicone-based surfactant of component is a polyoxyalkylene-modified polysiloxane; and component: at least one type of compound selected from the group consisting of a nonionic surfactant and anionic surfactant other than component. component: tert-butyl {6-{[ -(1-methy1-1H-5-tetrazolyl)phenylmethylene] aminooxymethyl}-2-pyridyl}carbamate; component: at least one type of compound selected from the group consisting of a polyoxyalkylene alkyl ether, polyoxyalkylene fatty acid ester, polyoxyalkylene sorbitan fatty acid ester and silicone-based surfactant, wherein the polyoxyalkylene alkyl ether of component is a polyoxyethylene castor oil ether, polyoxypropylene castor oil ether or polyoxyethylene polyoxypropylene castor oil ether, the polyoxyalkylene fatty acid ester of component is a polyoxyalkylene oleic acid ester or polyoxyalkylene lauric acid ester, the polyoxyalkylene sorbitan fatty acid ester of component is a polyoxyalkylene sorbitan monooleic acid ester or polyoxyalkylene sorbitan monolauric acid ester, and the silicone-based surfactant of component is a polyoxyalkylene-modified polysiloxane; and component: at least one type of compound selected from the group consisting of a nonionic surfactant and anionic surfactant other than component.
The detection method of blood plasma schizandrin B of strengthening body resistance and dissipating blood stasis botanical includes the following steps: Pretreatment of mammalian plasma samples a. Mammal plasma containing drugs after being administered the strengthening body resistance and dissipating blood stasis botanical was extracted with ethyl acetate with the volume ratio of 1:4, whirling for 3 min, then centrifugating at 9600 rpm for 10 min, and drying and enriching the supernatant under the condition of 25 to 30 °C, redissolving the eluent with mobile phase; b. After redissolving the eluent with mobile phase then analyzing it with UPLC/MS; UPLC/MS detection UPLC condition: chromatographic column: Acquity UPLC BEH C 18, 2.1 x 100 mm, mobile phase A: Water-Acetonitrile-Formic acid 95:5:0.1v/v/v, mobile phase B: Acetonitrile-Formic acid 100:0.1 v/v; MS condition: electrospray ionization ion source, detecting with positive ion mode, and mass scanning at the range of m/z 150 to 1200, wherein the described step detects with positive ion mode, the desolvation gas flow is 440 L/h, the desolvation gas temperature is 300 °C, the cone gas flow is 50 L/h, the ion source temperature is 100 °C, the spray capillary voltage is 3800 V, the sampling cone voltage is 30V, the extracting cone voltage is 2.00 V, the lens voltage is 0.1 V, and mass scanning at the range of m/z 150 to 1200. Pretreatment of mammalian plasma samples a. Mammal plasma containing drugs after being administered the strengthening body resistance and dissipating blood stasis botanical was extracted with ethyl acetate with the volume ratio of 1:4, whirling for 3 min, then centrifugating at 9600 rpm for 10 min, and drying and enriching the supernatant under the condition of 25 to 30 °C, redissolving the eluent with mobile phase; b. After redissolving the eluent with mobile phase then analyzing it with UPLC/MS; a. Mammal plasma containing drugs after being administered the strengthening body resistance and dissipating blood stasis botanical was extracted with ethyl acetate with the volume ratio of 1:4, whirling for 3 min, then centrifugating at 9600 rpm for 10 min, and drying and enriching the supernatant under the condition of 25 to 30 °C, redissolving the eluent with mobile phase; b. After redissolving the eluent with mobile phase then analyzing it with UPLC/MS; UPLC/MS detection UPLC condition: chromatographic column: Acquity UPLC BEH C 18, 2.1 x 100 mm, mobile phase A: Water-Acetonitrile-Formic acid 95:5:0.1v/v/v, mobile phase B: Acetonitrile-Formic acid 100:0.1 v/v; MS condition: electrospray ionization ion source, detecting with positive ion mode, and mass scanning at the range of m/z 150 to 1200,
An integrated circuit, IC, comprising: an input/output, IO, circuit in a first power domain, coupled between a first power supply terminal (VDDE) and a second power supply terminal (VSSE), wherein the first (VDDE) and second (VSSE) power supply terminals correspond to the first power domain, the IO circuit including: an external terminal configured to communicate signals external to the IC, and an internal circuit node configured to provide a tap signal, wherein the internal circuit node is neither the first power supply terminal nor the second power supply terminal; and an integrity monitor in a second power domain, coupled between a third power supply terminal (DVDD) and a fourth power supply terminal (DVSS), wherein the third (DVDD) and fourth (DVSS) power supply terminals correspond to the second power domain, the integrity monitor: having a counter configured to provide a count value by counting each time the tap signal reaches a threshold voltage, and configured to provide an integrity fault indicator based at least in part on the count value, in which the integrity fault indicator indicates whether or not a signal provided or received by the external terminal is trustworthy. an input/output, IO, circuit in a first power domain, coupled between a first power supply terminal (VDDE) and a second power supply terminal (VSSE), wherein the first (VDDE) and second (VSSE) power supply terminals correspond to the first power domain, the IO circuit including: an external terminal configured to communicate signals external to the IC, and an internal circuit node configured to provide a tap signal, wherein the internal circuit node is neither the first power supply terminal nor the second power supply terminal; and an external terminal configured to communicate signals external to the IC, and an internal circuit node configured to provide a tap signal, wherein the internal circuit node is neither the first power supply terminal nor the second power supply terminal; and an integrity monitor in a second power domain, coupled between a third power supply terminal (DVDD) and a fourth power supply terminal (DVSS), wherein the third (DVDD) and fourth (DVSS) power supply terminals correspond to the second power domain, the integrity monitor: having a counter configured to provide a count value by counting each time the tap signal reaches a threshold voltage, and configured to provide an integrity fault indicator based at least in part on the count value, in which the integrity fault indicator indicates whether or not a signal provided or received by the external terminal is trustworthy. having a counter configured to provide a count value by counting each time the tap signal reaches a threshold voltage, and configured to provide an integrity fault indicator based at least in part on the count value, in which the integrity fault indicator indicates whether or not a signal provided or received by the external terminal is trustworthy.