mhurhangee/ep-ind-claims huggingface dataset:
Test device for pumps, for alternate testing at an upper and a lower temperature, comprising - a first reservoir for a liquid at a first temperature, - a second reservoir for a liquid at a second temperature, - a first distribution line, which emerges from the first reservoir, a first collection line, which leads to the first reservoir - a second distribution line, which emerges from the second reservoir, a second collection line, which leads to the second reservoir, as well as - a plurality of test units, each test unit comprising: - a first feed line, which emerges from the first distribution line, - a second feed line, which emerges from the second distribution line, - a first feed test line, at which the first and second feed lines combine, - a first return line, which leads to the first collection line, - a second return line, which leads to the second collection line, - a return test line, which branches into the first and second return line, wherein between the feed test line and the return test line, a pump to be tested can be connected, - a first valve arrangement (37, 38), by means of which the first feed line and the second feed line can be alternately closed, and - a second valve arrangement (39, 40), by means of which the first return line and the second return line can be alternately closed. - a first reservoir for a liquid at a first temperature, - a second reservoir for a liquid at a second temperature, - a first distribution line, which emerges from the first reservoir, a first collection line, which leads to the first reservoir - a second distribution line, which emerges from the second reservoir, a second collection line, which leads to the second reservoir, as well as - a plurality of test units, each test unit comprising: - a first feed line, which emerges from the first distribution line, - a second feed line, which emerges from the second distribution line, - a first feed test line, at which the first and second feed lines combine, - a first return line, which leads to the first collection line, - a second return line, which leads to the second collection line, - a return test line, which branches into the first and second return line, wherein between the feed test line and the return test line, a pump to be tested can be connected, - a first feed line, which emerges from the first distribution line, - a second feed line, which emerges from the second distribution line, - a first feed test line, at which the first and second feed lines combine, - a first return line, which leads to the first collection line, - a second return line, which leads to the second collection line, - a return test line, which branches into the first and second return line, wherein between the feed test line and the return test line, a pump to be tested can be connected, - a first valve arrangement (37, 38), by means of which the first feed line and the second feed line can be alternately closed, and - a second valve arrangement (39, 40), by means of which the first return line and the second return line can be alternately closed.
A power tool, comprising: a main housing provided with an accommodation space; a drive mechanism at least partially accommodated in the accommodation space and comprising a motor; a working head comprising an output shaft, wherein the output shaft is driven by the drive mechanism to rotate about an output axis; and a connection assembly comprising an input portion connected to the drive mechanism and an output portion connected to the output shaft, wherein the connection assembly rotates the working head around a first axis relative to the main housing; wherein the power tool comprises a first transmission path, the first transmission path is a torque transmission path from the drive mechanism through the connection assembly to the output shaft, and at least a component in the first transmission path are configured to be deformed or to be displaced along a direction of the first transmission path when the working head rotates about the first axis relative to the main housing; characterized in that the working head comprises a limit position where the working head moves to a limit around the first axis, and an included angle α between an axis of the input portion and an axis of the output portion is less than or equal to 85 degrees when the working head is located at the limit position. a main housing provided with an accommodation space; a drive mechanism at least partially accommodated in the accommodation space and comprising a motor; a working head comprising an output shaft, wherein the output shaft is driven by the drive mechanism to rotate about an output axis; and a connection assembly comprising an input portion connected to the drive mechanism and an output portion connected to the output shaft, wherein the connection assembly rotates the working head around a first axis relative to the main housing; wherein the power tool comprises a first transmission path, the first transmission path is a torque transmission path from the drive mechanism through the connection assembly to the output shaft, and at least a component in the first transmission path are configured to be deformed or to be displaced along a direction of the first transmission path when the working head rotates about the first axis relative to the main housing; characterized in that the working head comprises a limit position where the working head moves to a limit around the first axis, and an included angle α between an axis of the input portion and an axis of the output portion is less than or equal to 85 degrees when the working head is located at the limit position.
A method comprising: receiving, at a processor, detector data comprising data obtained by modulation spectroscopy and by direct absorbance spectroscopy representative of an absorbance of light emitted from a light source as the light passes through a volume of gas over a path length, the volume of gas comprising an analyte at an analyte concentration; analyzing the detector data using a first analysis method to obtain a first calculation of the analyte concentration, the first analysis method having a first target range, the first analysis method comprising modulation spectroscopy; analyzing the detector data using a second analysis method to obtain a second calculation of the analyte concentration, the second analysis method having a second target range that differs from and extends outside of the first target range, the second analysis method comprising direct absorbance spectroscopy; determining if the first calculation of the analyte concentration indicates that the analyte concentration is outside of the first target range, and promoting the second calculation as the analyte concentration if it is determined that the first calculation of the analyte concentration indicates that the analyte concentration is outside of the first target range, and using the second calculation of the analyte concentration to calibrate the first analysis method if the analyte concentration in the volume of gas is in a calibration range in which the first target range and the second target range overlap for compensating collisional broadening effects on a harmonic lineshape. receiving, at a processor, detector data comprising data obtained by modulation spectroscopy and by direct absorbance spectroscopy representative of an absorbance of light emitted from a light source as the light passes through a volume of gas over a path length, the volume of gas comprising an analyte at an analyte concentration; analyzing the detector data using a first analysis method to obtain a first calculation of the analyte concentration, the first analysis method having a first target range, the first analysis method comprising modulation spectroscopy; analyzing the detector data using a second analysis method to obtain a second calculation of the analyte concentration, the second analysis method having a second target range that differs from and extends outside of the first target range, the second analysis method comprising direct absorbance spectroscopy; determining if the first calculation of the analyte concentration indicates that the analyte concentration is outside of the first target range, and promoting the second calculation as the analyte concentration if it is determined that the first calculation of the analyte concentration indicates that the analyte concentration is outside of the first target range, and using the second calculation of the analyte concentration to calibrate the first analysis method if the analyte concentration in the volume of gas is in a calibration range in which the first target range and the second target range overlap for compensating collisional broadening effects on a harmonic lineshape.
A computer-implemented method for presenting a document for interaction with a user in a web browser, the method comprising: accessing an electronic model of the document; determining, with a computing device, positions for items in a visual rendering of the electronic model based on relative sizes and positions of other items in the electronic model; generating, with the computing device, a document object model, DOM, that represents at least part of the electronic model and defines an editing surface, wherein the DOM: (a) places the items at the determined positions on the editing surface, (b) places a graphic element that represents a cursor at a determined location on the editing surface, and (c) is arranged to receive user input on the editing surface and to correlate a location of the received user input to a location in the electronic model; receiving an entry of a character to the editing surface; determining a display style for the character; generating in the web browser an off-screen span element with the character with the determined style in the element; wherein determining a position of an item corresponding to the character in the visual rendering of the electronic model includes determining a size of the off-screen span element. accessing an electronic model of the document; determining, with a computing device, positions for items in a visual rendering of the electronic model based on relative sizes and positions of other items in the electronic model; generating, with the computing device, a document object model, DOM, that represents at least part of the electronic model and defines an editing surface, wherein the DOM: (a) places the items at the determined positions on the editing surface, (b) places a graphic element that represents a cursor at a determined location on the editing surface, and (c) is arranged to receive user input on the editing surface and to correlate a location of the received user input to a location in the electronic model; (a) places the items at the determined positions on the editing surface, (b) places a graphic element that represents a cursor at a determined location on the editing surface, and (c) is arranged to receive user input on the editing surface and to correlate a location of the received user input to a location in the electronic model; receiving an entry of a character to the editing surface; determining a display style for the character; generating in the web browser an off-screen span element with the character with the determined style in the element; wherein determining a position of an item corresponding to the character in the visual rendering of the electronic model includes determining a size of the off-screen span element.
Method for producing a DNA hydrogel comprising the following steps: a) Providing basis DNA b) Enzymatically digesting basis DNA to obtain linear dsDNA building blocks, and c) Providing DNA hydrogel by assembly of the building blocks, wherein the assembly involves DNA hybridization and/or enzymatic ligation, wherein the method further comprises the step of adding non-linear dsDNA building blocks prior to assembly and wherein non-linear dsDNA building blocks are added in an amount of at most 10 wt.-% based on the weight of the linear dsDNA building blocks. a) Providing basis DNA b) Enzymatically digesting basis DNA to obtain linear dsDNA building blocks, and c) Providing DNA hydrogel by assembly of the building blocks, wherein the assembly involves DNA hybridization and/or enzymatic ligation,
Method for producing flexographic printing formes, in which the starting material used is a photo-polymerisable flexographic printing element, which comprises at least the following arranged above one another: • a dimensionally stable carrier, and • at least one photo-polymerisable relief-forming layer, at least comprising an elastomer binder, an ethylenically unsaturated compound and a photo initiator, • a digitally imageable layer, and the method comprises at least the following steps: (a) producing a mask by imaging the digitally imageable layer, (b) exposing the photo-polymerisable relief-forming layer through the mask with actinic light and photo-polymerisation of the image regions of the layer, and (c) developing the photo-polymerisable layer by washing out the non-photo-polymerised regions of the relief-forming layer with an organic solvent or by thermal development, characterized in that step (b) comprises two or more exposure cycles (b-1) to (b-n) with actinic light with an intensity of 100 to 5000 mW/cm 2 from a plurality of UV LEDs, wherein the energy input into the photo-polymerisable relief-forming layer per exposure cycle is 0.1 to 5 J/cm 2. • a dimensionally stable carrier, and • at least one photo-polymerisable relief-forming layer, at least comprising an elastomer binder, an ethylenically unsaturated compound and a photo initiator, • a digitally imageable layer, (a) producing a mask by imaging the digitally imageable layer, (b) exposing the photo-polymerisable relief-forming layer through the mask with actinic light and photo-polymerisation of the image regions of the layer, and (c) developing the photo-polymerisable layer by washing out the non-photo-polymerised regions of the relief-forming layer with an organic solvent or by thermal development, characterized in that
A film cooling structure, comprising: a structural wall that has an outer surface exposed to combustion gas and an inner surface positioned opposite to the outer surface, wherein film cooling holes being formed at the structural wall and introducing cooling air from the inner surface toward the outer surface in order to perform film cooling of the outer surface, the film cooling hole includes an introducing portion that extends to a middle position in the structural wall from the inner surface toward the outer surface, an enlarged portion of which the cross-sectional area is gradually increased toward the outer surface from an end of an outer surface side of the introducing portion and which is opened at the outer surface, and a partition portion that partitions the inside of the enlarged portion into a plurality of spaces in a width direction of the hole perpendicular to a flow direction of the combustion gas, wherein the partition portion is formed at a middle position of the inside of the film cooling hole in the width direction of the hole perpendicular to the flow direction of the combustion gas, characterized in that the partition portion protrudes from one of the wall surfaces facing upstream and downstream sides in the flow direction of the combustion gas toward the other thereof but does not completely partition the film cooling hole in the width direction, and the partition portion extends over the entire inside of the hole from the inner surface of the structural wall toward the outer surface. a structural wall that has an outer surface exposed to combustion gas and an inner surface positioned opposite to the outer surface, wherein film cooling holes being formed at the structural wall and introducing cooling air from the inner surface toward the outer surface in order to perform film cooling of the outer surface, the film cooling hole includes an introducing portion that extends to a middle position in the structural wall from the inner surface toward the outer surface, an enlarged portion of which the cross-sectional area is gradually increased toward the outer surface from an end of an outer surface side of the introducing portion and which is opened at the outer surface, and a partition portion that partitions the inside of the enlarged portion into a plurality of spaces in a width direction of the hole perpendicular to a flow direction of the combustion gas, wherein the partition portion is formed at a middle position of the inside of the film cooling hole in the width direction of the hole perpendicular to the flow direction of the combustion gas, characterized in that the partition portion protrudes from one of the wall surfaces facing upstream and downstream sides in the flow direction of the combustion gas toward the other thereof but does not completely partition the film cooling hole in the width direction, and the partition portion extends over the entire inside of the hole from the inner surface of the structural wall toward the outer surface.
A pressure swing adsorption process for separating a pressurized supply feed gas containing one or more strongly adsorbable component from at least one less strongly adsorbable product gas component in a eleven bed pressure swing adsorption system to produce a continuous stream of product gas enriched in the less strongly adsorbable component and a continuous stream of offgas that is enriched in strongly adsorbable components, wherein the process cycle has four bed-to-bed equalizations steps, while four of the beds are in production, and utilize purge gas of increasing concentrations of the less strongly adsorbable product gas during the purging steps, in accordance to the following cycle chart: where: A1 = First Adsorption Step A2 = Second Adsorption Step A3 = Third Adsorption Step A4 = Fourth Adsorption Step A5 = Fifth Adsorption Step A6 = Sixth Adsorption Step A7 = Seventh Adsorption Step A8 = Eighth Adsorption Step E1 = First Equalization Down E2 = Second Equalization Down E3 = Third Equalization Down E4 = Fourth Equalization Down PPG1 = First Provide Purge Gas PPG2 = Second Provide Purge Gas BD = Blowdown PG2 = Purge using gas from PPG2 step PG1 = Purge using gas from PPG1 step E4' = Equalization Up (using gas from E4 step) E3' = Equalization Up (using gas from E3 step) E2' = Equalization Up (using gas from E2 step) E1' = Equalization Up (using gas from E1 step) PP = Product Pressurization A1 = First Adsorption Step A2 = Second Adsorption Step A3 = Third Adsorption Step A4 = Fourth Adsorption Step A5 = Fifth Adsorption Step A6 = Sixth Adsorption Step A7 = Seventh Adsorption Step A8 = Eighth Adsorption Step E1 = First Equalization Down E2 = Second Equalization Down E3 = Third Equalization Down E4 = Fourth Equalization Down PPG1 = First Provide Purge Gas PPG2 = Second Provide Purge Gas BD = Blowdown PG2 = Purge using gas from PPG2 step PG1 = Purge using gas from PPG1 step E4' = Equalization Up (using gas from E4 step) E3' = Equalization Up (using gas from E3 step) E2' = Equalization Up (using gas from E2 step) E1' = Equalization Up (using gas from E1 step) PP = Product Pressurization
Fastening device used to assemble objects together and then to release them quickly, which fastening device is formed of a retaining means (P; 3) designed to retain a hooking element prior to release, said retaining means (P; 3) consisting of the bringing together, around a stowable part of said hooking element, of a plurality of separable parts (E; 30) which are resiliently biased apart from one another and kept close together around said hooking element via a disengageable prestressing means (L; 2), which prestressing means (L; 2) consists of an element forming a link which is wound around said separable parts (E; 30) so as to keep them closed on said hooking element, and of which link at least one end is fastened to a mechanism (T; 4) for maintaining the tension exerted on this link, which mechanism also comprises means for releasing this tension on demand, said link (L; 2) having the appearance of a strip wound in a spiral and comprising spring characteristics, characterized in that said strip has a non-constant thickness, i.e. this thickness decreases from the inside towards the outside of the spiral, this thickness decreasing with the angle of the spiral.
A rolling mode washing method using pulsators wherein during washing or rinsing, water is supplied to a specified position, the method comprising starting a motor to drive the pulsators to rotate for washing; characterised in that the washing method has at least two laundry rolling surfaces alternating and not simultaneously performed to provide a mechanical force for washing laundry, each said rolling surface being formed by the rotation of a pulsator, more than one rolling of laundry is performed on one rolling surface, and then switched to be performed on another rolling surface, this cycle being repeated untill the end of the washing, the number of rollings on different rolling surfaces may be the same or not the same; and wherein one of the laundry rolling surface is formed by a pair of adjacent pulsators (6, 7) slantedly arranged with a side auxiliary force being provided by at least another pulsator to push the dropped laundry toward the clipping position of the pair of pulsators, wherein ribs on the pulsators (6, 7) lift, drop and relift the laundry in a nearly continuous laundry flow mode, the process repeating itself at least once; another laundry rolling surface, alternating and not simultaneously performed, is formed by another pair of adjacent pulsators (6, 8) slantedly arranged, wherein the ribs on the pulsators (6, 8) lift, drop and relift the laundry in a nearly continuous laundry flow mode, the process also repeating itself at least for once with a side auxiliary force being provided by at least another pulsator to push the dropped laundry toward the clipping position of the pair of pulsators.
A non-ferrous metal melt pump comprising: a container body which includes an inner space and a non-ferrous metal melt passageway, the non-ferrous metal melt passageway having a spiral passageway formed inside a side wall so that a lower end inlet and an upper end open portion, respectively formed in the side wall to be open to the outside, communicate with each other; a magnetic field device, which is rotatable about the vertical axis line, arranged inside the inner space, and the magnetic field device having a magnitude of a magnetic field such that lines of magnetic force moves while penetrating non-ferrous metal melt inside the spiral passageway (8, 8a) during the rotation; and a drive device which rotationally drives the magnetic field device, wherein the container body is made of a fire-resistant material and characterized in that the container body is formed as a double structure container having a cylindrical container serving as an outer cylinder and an inner container serving as an inner cylinder, and the non-ferrous metal melt passageway is formed in the side wall of the cylindrical container. a container body which includes an inner space and a non-ferrous metal melt passageway, the non-ferrous metal melt passageway having a spiral passageway formed inside a side wall so that a lower end inlet and an upper end open portion, respectively formed in the side wall to be open to the outside, communicate with each other; a magnetic field device, which is rotatable about the vertical axis line, arranged inside the inner space, and the magnetic field device having a magnitude of a magnetic field such that lines of magnetic force moves while penetrating non-ferrous metal melt inside the spiral passageway (8, 8a) during the rotation; and a drive device which rotationally drives the magnetic field device, wherein the container body is made of a fire-resistant material and characterized in that the container body is formed as a double structure container having a cylindrical container serving as an outer cylinder and an inner container serving as an inner cylinder, and the non-ferrous metal melt passageway is formed in the side wall of the cylindrical container.