mhurhangee/ep-ind-claims huggingface dataset:
A method of moving an object (220; 320) between pages (211, 212, 213; 311, 312) of a screen, the method comprising: displaying only a first page (211; 311) including a plurality of objects on the screen, wherein the first page is one of a plurality of pages; receiving a first touch input with respect to one object of the plurality of objects, and moving by dragging the one object to an edge of the screen on which the first page is displayed; in response to the first touch input and moving the one object to the edge of the screen, displaying only a part of the first page while displaying a plurality of pages including a second page, the plurality of pages being inclined in a depth direction (212; 312); receiving a second touch input with respect to the one object moved to the edge of the screen, and moving by dragging the one object to the second page displayed on the screen; and displaying only the second page, including the one object moved from the first page, on the screen. displaying only a first page (211; 311) including a plurality of objects on the screen, wherein the first page is one of a plurality of pages; receiving a first touch input with respect to one object of the plurality of objects, and moving by dragging the one object to an edge of the screen on which the first page is displayed; in response to the first touch input and moving the one object to the edge of the screen, displaying only a part of the first page while displaying a plurality of pages including a second page, the plurality of pages being inclined in a depth direction (212; 312); receiving a second touch input with respect to the one object moved to the edge of the screen, and moving by dragging the one object to the second page displayed on the screen; and displaying only the second page, including the one object moved from the first page, on the screen.
A mutated enzyme, wherein the activity and/or substrate specificity in terms of its Km value and/or Kcat value for hydrolyzing an α-1,6-glycosidic linkage with respect to pullulan or amylopectin in 50 mM acetate buffer at pH 5.6 at 25 °C is improved as compared with the enzyme to be mutated, comprising an amino acid sequence in which one or two or more amino acids selected from the group shown below in an amino acid sequence of an enzyme (enzyme to be mutated) that hydrolyzes an α-1,6-glycosidic linkage, the group consisting of an amino acid in the substrate binding site of the enzyme and involved in binding of the substrate, which corresponds to an amino acid at the 476 position, an amino acid corresponding to an amino acid at the 292 position, an amino acid corresponding to an amino acid at the 371 position, an amino acid corresponding to an amino acid at the 406 position, an amino acid corresponding to an amino acid at the 407 position, an amino acid corresponding to an amino acid at the 437 position, an amino acid corresponding to an amino acid at the 465 position, an amino acid corresponding to an amino acid at the 475 position, an amino acid corresponding to an amino acid at the 525 position, an amino acid corresponding to an amino acid at the 526 position, an amino acid corresponding to an amino acid at the 580 position and an amino acid corresponding to an amino acid at the 582 position of the amino acid sequence set forth in SEQ ID NO: 2 is substituted with another amino acid or deleted, wherein the amino acid sequence of the enzyme to be mutated is the amino acid sequence set forth in SEQ ID NO: 13 and wherein the mutated enzyme differs from the parent enzyme in less than 10% with respect to the entire amino acid sequence.
An electric construction machine comprising: a power storage device; an electric motor that is driven by power of the power storage device; a hydraulic pump that is driven by the electric motor; a travelling hydraulic motor and a work hydraulic actuator (14, 15, 16) that are driven by a hydraulic fluid delivered from the hydraulic pump; a controller (37; 37A); and a display device, characterized in that the controller (37; 37A) is configured to: compute an operable time by dividing a current energy storage amount of the power storage device by average power consumption for the case of driving of the electric motor; compute a travelable time by dividing the current energy storage amount of the power storage device by average power consumption for the case of driving of the electric motor and the travelling hydraulic motor; and cause the computed operable time and the computed travelable time to be displayed on the display device at the same time. a power storage device; an electric motor that is driven by power of the power storage device; a hydraulic pump that is driven by the electric motor; a travelling hydraulic motor and a work hydraulic actuator (14, 15, 16) that are driven by a hydraulic fluid delivered from the hydraulic pump; a controller (37; 37A); and a display device, characterized in that the controller (37; 37A) is configured to: compute an operable time by dividing a current energy storage amount of the power storage device by average power consumption for the case of driving of the electric motor; compute a travelable time by dividing the current energy storage amount of the power storage device by average power consumption for the case of driving of the electric motor and the travelling hydraulic motor; and cause the computed operable time and the computed travelable time to be displayed on the display device at the same time. compute an operable time by dividing a current energy storage amount of the power storage device by average power consumption for the case of driving of the electric motor; compute a travelable time by dividing the current energy storage amount of the power storage device by average power consumption for the case of driving of the electric motor and the travelling hydraulic motor; and cause the computed operable time and the computed travelable time to be displayed on the display device at the same time.
A liquid feeding method comprising: a first step of sucking, by a pipette tip, liquid in a liquid injection section to remove liquid in a flow path in a state where there is no gap is between an opening section and the pipette tip, the pipette tip being inserted through the opening section into the liquid injection section of a detection chip, the detection chip including both the flow path and the liquid injection section communicating with one end of the flow path and having the opening section; a second step of, after the first step, moving the pipette tip in a reciprocating manner two or more times along an axial direction of the pipette tip while ensuring that no gap occurs between the opening section and the pipette tip, wherein the two or more times includes at least one time where fluid in the liquid injection section is sucked by the pipette tip; and a third step of, after the second step, injecting the liquid from the pipette tip into the liquid injection section to introduce the liquid into the flow path in a state where no gap is between the opening section and the pipette tip. a first step of sucking, by a pipette tip, liquid in a liquid injection section to remove liquid in a flow path in a state where there is no gap is between an opening section and the pipette tip, the pipette tip being inserted through the opening section into the liquid injection section of a detection chip, the detection chip including both the flow path and the liquid injection section communicating with one end of the flow path and having the opening section; a second step of, after the first step, moving the pipette tip in a reciprocating manner two or more times along an axial direction of the pipette tip while ensuring that no gap occurs between the opening section and the pipette tip, wherein the two or more times includes at least one time where fluid in the liquid injection section is sucked by the pipette tip; and a third step of, after the second step, injecting the liquid from the pipette tip into the liquid injection section to introduce the liquid into the flow path in a state where no gap is between the opening section and the pipette tip.
A method of producing Niobium or its alloys based superconducting radio frequency (SCRF) cavities, characterized in that the method comprises: providing at least one component made of Niobium or its alloys joined by laser welding from inside surface of the wall of the cavity with depth of penetration of welding from inside ranging from greater than half the thickness to full depth of the material being welded, following the steps of (i) a first phase of controlled keyhole welding from inside surface of the wall of cavity followed by (ii) a second phase of conduction welding, to achieve very smooth finish of the weld joint, thus minimizing distortion and shrinkage with narrow HAZ and weld surface finish adapted for achieving reliable operation of SCRF cavity. providing at least one component made of Niobium or its alloys joined by laser welding from inside surface of the wall of the cavity with depth of penetration of welding from inside ranging from greater than half the thickness to full depth of the material being welded, following the steps of (i) a first phase of controlled keyhole welding from inside surface of the wall of cavity followed by (ii) a second phase of conduction welding, to achieve very smooth finish of the weld joint,
A gas turbine engine comprising: a tank including oil; a conduit in fluid communication with the tank; a first strut in fluid communication with the conduit; a splitter nose in fluid communication with the first strut; a second strut in fluid communication with the splitter nose; and a shroud in fluid communication with the second strut and the tank, wherein the conduit, the first strut, the splitter nose, the second strut, and the shroud are configured to convey the oil to warm at least one surface of each of the first strut, the splitter nose, the second strut, and the shroud. a tank including oil; a conduit in fluid communication with the tank; a first strut in fluid communication with the conduit; a splitter nose in fluid communication with the first strut; a second strut in fluid communication with the splitter nose; and a shroud in fluid communication with the second strut and the tank, wherein the conduit, the first strut, the splitter nose, the second strut, and the shroud are configured to convey the oil to warm at least one surface of each of the first strut, the splitter nose, the second strut, and the shroud.
A Fourier ptychographic imaging device, comprising: a variable illuminator for providing illumination to a specimen to be imaged while being illuminated from a plurality of incidence angles successively, the variable illuminator comprising a matrix of light elements providing illumination from the plurality of incidence angles; an optical element comprising a lens configured to receive light issuing from the specimen, and configured to filter the received light based on its acceptance angle; a detector configured to receive light from the optical element and acquire a plurality of variably-illuminated, low-resolution intensity images of the specimen, each intensity image acquired based on light received and filtered by the optical element while the specimen is illuminated at one of the plurality of incidence angles; and a processor configured to perform an iterative process for determining a high-resolution complex image of the specimen by iteratively updating overlapping regions in Fourier space with data based on the captured variably-illuminated, low-resolution intensity images, wherein the iterative process includes computationally recovering phase image information from the low-resolution intensity images. a variable illuminator for providing illumination to a specimen to be imaged while being illuminated from a plurality of incidence angles successively, the variable illuminator comprising a matrix of light elements providing illumination from the plurality of incidence angles; an optical element comprising a lens configured to receive light issuing from the specimen, and configured to filter the received light based on its acceptance angle; a detector configured to receive light from the optical element and acquire a plurality of variably-illuminated, low-resolution intensity images of the specimen, each intensity image acquired based on light received and filtered by the optical element while the specimen is illuminated at one of the plurality of incidence angles; and a processor configured to perform an iterative process for determining a high-resolution complex image of the specimen by iteratively updating overlapping regions in Fourier space with data based on the captured variably-illuminated, low-resolution intensity images, wherein the iterative process includes computationally recovering phase image information from the low-resolution intensity images.
Circuit housing (10; 110) having a heat-coupling element and a fastening device (80; 180) for fastening a circuit (20, 120) to at least one component in the interior of the circuit housing (10; 110), wherein a housing wall of the circuit housing (10; 110) comprises the heat-coupling element (70; 170), the heat-coupling element (70; 170) is arranged on an inner surface (170a, d, e) of the housing wall, and the fastening device (80; 180) is designed to position the at least one component (30, 124) in the interior of the circuit housing (10; 110) and in direct contact with the heat-coupling element (70; 170), characterized in that a heat-emitting area of the at least one component extends in an inclined manner in relation to the circuit and the heat-coupling element is accordingly provided opposite the inclined heat-emitting area, the said heat-coupling element extending from the housing wall in the direction of the circuit and having a surface section, which is connected in a thermally conductive manner to the heat-emitting area, on that side which faces the heat-emitting area.
A method of synchronizing a line scan camera, comprising: obtaining (404; 432) line scan data of a region of interest of a travelling surface from the line scan camera, the line scan camera being oriented perpendicular to a direction of travel of the travelling surface, the line scan data comprising a plurality of lines; identifying occurrences of a major frequency of a repeated texture on the travelling surface in the direction of travel of the travelling surface using characterized line scan data for each line in the plurality of lines of the line scan data, wherein the characterized line scan data for each line is a statistical measure of the pixel values of each line of line scan data, each of the pixel values being a digital number; determining a period of the major frequency; and changing a line rate of the line scan camera when the determined period is different than a reference period. obtaining (404; 432) line scan data of a region of interest of a travelling surface from the line scan camera, the line scan camera being oriented perpendicular to a direction of travel of the travelling surface, the line scan data comprising a plurality of lines; identifying occurrences of a major frequency of a repeated texture on the travelling surface in the direction of travel of the travelling surface using characterized line scan data for each line in the plurality of lines of the line scan data, wherein the characterized line scan data for each line is a statistical measure of the pixel values of each line of line scan data, each of the pixel values being a digital number; determining a period of the major frequency; and changing a line rate of the line scan camera when the determined period is different than a reference period.
Method for manufacturing a vehicle, in which add-on parts are mounted on a vehicle body in a production line of a vehicle construction plant, attached to each of which add-on parts is an add-on part transponder which, after installation of the respective add-on part in the vehicle, is detected by means of an RFID reader device for construction state documentation, wherein, in the production line, a belt retractor of a safety belt assembly is fitted as an add-on part into a cavity of a vehicle body column formed as a hollow beam, characterized in that the belt retractor is assigned at least one belt retractor transponder, and in that the belt retractor transponder is not attached directly to the belt retractor, but rather to a belt strap of the belt retractor outside the body column cavity.
A method of purifying an RNA fraction with < 200 nucleotides in length from a whole blood sample comprising the steps of: (i) providing an absorbent probe comprising a hydrophilic polymeric material in/to which whole blood from the whole blood sample has been absorbed, (ii) contacting the absorbent probe with a fluid comprising a chaotropic agent, and (iii) recovering the fluid comprising a chaotropic agent from step (ii), thereby removing the RNA fraction with ≥ 200 nucleotides in length, and (iv) purifying the RNA fraction with < 200 nucleotides in length from the recovered fluid by one or more separation techniques selected from the group consisting of centrifugation, evaporation/reconstitution, concentration, precipitation, liquid/liquid extraction, and solid phase extraction, wherein the RNA fraction with ≥ 200 nucleotides in length does not enter the fluid and remains absorbed to the hydrophilic polymeric material wherein the hydrophilic polymeric material has a density of ≤ 6 g/cm 3, and wherein the hydrophilic polymeric material is selected from the group consisting of cotton, a polysaccharide, a polyolefin, and a polyester. (i) providing an absorbent probe comprising a hydrophilic polymeric material in/to which whole blood from the whole blood sample has been absorbed, (ii) contacting the absorbent probe with a fluid comprising a chaotropic agent, and (iii) recovering the fluid comprising a chaotropic agent from step (ii), thereby removing the RNA fraction with ≥ 200 nucleotides in length, and (iv) purifying the RNA fraction with < 200 nucleotides in length from the recovered fluid by one or more separation techniques selected from the group consisting of centrifugation, evaporation/reconstitution, concentration, precipitation, liquid/liquid extraction, and solid phase extraction, wherein the RNA fraction with ≥ 200 nucleotides in length does not enter the fluid and remains absorbed to the hydrophilic polymeric material wherein the hydrophilic polymeric material has a density of ≤ 6 g/cm 3, and wherein the hydrophilic polymeric material is selected from the group consisting of cotton, a polysaccharide, a polyolefin, and a polyester. wherein the RNA fraction with ≥ 200 nucleotides in length does not enter the fluid and remains absorbed to the hydrophilic polymeric material wherein the hydrophilic polymeric material has a density of ≤ 6 g/cm 3, and wherein the hydrophilic polymeric material is selected from the group consisting of cotton, a polysaccharide, a polyolefin, and a polyester.
A method of setting and clearing a full-power flag in a control process running on a wind turbine controller, the method comprising acquiring a set of measured values and/or reference values for the following parameters: rotor speed, output power, blade pitch angle, and activation level of an adaptive flow regulating system, determining that a first condition is fulfilled when the measured value of the rotor speed equals a speed limit value and the output power reference value equals a power limit value, determining that a second condition is fulfilled when the blade pitch angle reference value fulfills a pitch condition and the activation level of the adaptive flow regulating system fulfills an adaptive flow regulating condition, setting the full-power flag if the first condition is fulfilled and the second condition has not been fulfilled for a first predetermined period of time, and clearing the full-power flag if the second condition is fulfilled. acquiring a set of measured values and/or reference values for the following parameters: rotor speed, output power, blade pitch angle, and activation level of an adaptive flow regulating system, determining that a first condition is fulfilled when the measured value of the rotor speed equals a speed limit value and the output power reference value equals a power limit value, determining that a second condition is fulfilled when the blade pitch angle reference value fulfills a pitch condition and the activation level of the adaptive flow regulating system fulfills an adaptive flow regulating condition, setting the full-power flag if the first condition is fulfilled and the second condition has not been fulfilled for a first predetermined period of time, and clearing the full-power flag if the second condition is fulfilled.
An energy storage device comprising: a positive electrode; a negative electrode; a separator disposed between the positive electrode and the negative electrode; and a non-aqueous electrolyte, wherein the negative electrode includes non-graphitizable carbon as a negative electrode active material, the separator has a thickness of 10 to 30 μm and an air permeability of 10 to 180 sec/100 cc, wherein the air permeability is obtained by the method as described in the description, and characterized in that the positive electrode material layer has an area of 0.3 to 100 m 2. a positive electrode; a negative electrode; a separator disposed between the positive electrode and the negative electrode; and a non-aqueous electrolyte, wherein the negative electrode includes non-graphitizable carbon as a negative electrode active material, the separator has a thickness of 10 to 30 μm and an air permeability of 10 to 180 sec/100 cc, wherein the air permeability is obtained by the method as described in the description, and characterized in that the positive electrode material layer has an area of 0.3 to 100 m 2.
A fault diagnosis method of a control device having an output connected to a power conversion device supplying power to a control target, the control device comprising an input unit having an input for receiving an input signal, a cut-off retaining unit controlling the power supply to the control target, a fault diagnosis unit diagnosing a fault in the cut-off retaining unit, and a forcible cut-off unit, wherein the input unit has another input for receiving a first signal from the forcible cut-off unit and outputs a second signal with a cut-off command to the cut-off retaining unit when either of its inputs receives the input signal or first signal with a cut-off command, and the cut-off retaining unit has an input for receiving said second signal with the cut-off command from the input unit and another input for receiving a third signal with a release command, wherein when a power source is applied to the control device, the forcible cut-off unit outputs the first signal with the cut-off command to the input unit for a predetermined period of time so that the input unit is started in a cut-off state where it outputs the second signal with the cut-off command to the cut-off retaining unit regardless of the input signal, and the cut-off state is retained for the predetermined period of time, and wherein when the input signal with the cut-off command is input after the predetermined time has elapsed without a fault having been determined, the cut-off retaining unit retains the cut-off state, and when the third signal with the release command is input, the cut-off retaining unit releases the cut-off state, whereby the output of the control device accords to an output of the cut-off retaining unit and switches between outputting a cut-off signal and a permission signal to the power conversion device, whereas in the case of the fault diagnosis unit determining that there is a fault within the predetermined period of time, the output of the control device is retained in the cut-off state outputting the cut-off signal to the power conversion device until the power source of the control device is cut off, regardless of said input signal and said third signal, even after the predetermined period of time has elapsed.