mhurhangee/ep-ind-claims huggingface dataset:
An energy storage device comprising: a positive electrode in which a positive composite layer containing a positive composite is formed on a positive electrode substrate; a negative electrode in which a negative composite layer containing a negative composite is formed on a negative electrode substrate; a separator interposed between the positive and negative electrodes, the separator comprising a substrate and a heat-resistant layer containing heat-resistant particles and formed on the substrate; and a case which holds therein the positive electrode, the negative electrode, and the separator, and is in the form of a substantially rectangular parallelepiped to have a pair of long side faces and a pair of short side faces, characterized in that when a direction along a first edge of the long side face, the first edge partially constituting the entire circumferential edge of the long side face, is defined as a first direction, and a direction along a second edge of the long side face, the second edge being orthogonal to the first edge, is defined as a second direction, a value of a ratio of a tensile elongation in the first direction of the separator to a tensile elongation in the first direction of the positive electrode substrate is from 4 to 68 in a state where the positive electrode and the separator are held in the case, a value of a ratio of a tensile elongation in the second direction of the separator to a tensile elongation in the second direction of the positive electrode substrate is from 4 to 68 in the state where the positive electrode and the separator are held in the case, a value of a ratio of a thickness of the heat-resistant layer to a thickness of the positive electrode substrate is from 0.25 to 0.70, and a proportion by mass of the heat-resistant particles contained in the heat-resistant layer is from 30 to 99% by mass of the heat-resistant layer. a positive electrode in which a positive composite layer containing a positive composite is formed on a positive electrode substrate; a negative electrode in which a negative composite layer containing a negative composite is formed on a negative electrode substrate; a separator interposed between the positive and negative electrodes, the separator comprising a substrate and a heat-resistant layer containing heat-resistant particles and formed on the substrate; and a case which holds therein the positive electrode, the negative electrode, and the separator, and is in the form of a substantially rectangular parallelepiped to have a pair of long side faces and a pair of short side faces,
Food cutting household electrical appliance comprising a motorised base attached to a magazine for receiving a cutting tool comprising a rotary cutting element and a static cutting element, the rotary cutting element comprising first cutting means and means for coupling to a rotational drive device arranged in the housing, the static cutting element comprising second cutting means and locking means for engaging in a fixed position with the magazine, the static cutting element having a shape allowing it to be inserted inside the rotary cutting element mounted in the housing so that the second cutting means overlap at least some of the foods cut by the first cutting means characterised in that the appliance comprises a locking cover having hooking means for engaging with the magazine by accommodating the rotary cutting element stacked in at least one other rotary cutting element (13, 14, 15, 16), and in that the static cutting element comprises retaining means for engaging with the locking cover so that the second cutting means are at least partially inserted inside the rotary cutting element.
A method to separate biological entities (10, 30) within a fluid sample comprising steps of: passing said fluid sample through a microfluidic device, wherein said biological entities (10, 30) are separated based on a size of said biological entities (10, 30) into a first sub-set and a second sub-set by one or more pressure nodes generated by an acoustic source attached to said microfluidic device, thereby producing a first sample comprising the first sub-set of said biological entities (10, 30); passing said first sample through a magnetic separator comprising a magnet, wherein biological entities (10, 30) having magnetic labels are separated by said magnet from said first sample, thereby producing a second sample; and wherein said first sample is passed from said microfluidic device to said magnetic separator through a flow connector arranged to decouple a flow rate of said microfluidic device from a flow rate of said magnetic separator. passing said fluid sample through a microfluidic device, wherein said biological entities (10, 30) are separated based on a size of said biological entities (10, 30) into a first sub-set and a second sub-set by one or more pressure nodes generated by an acoustic source attached to said microfluidic device, thereby producing a first sample comprising the first sub-set of said biological entities (10, 30); passing said first sample through a magnetic separator comprising a magnet, wherein biological entities (10, 30) having magnetic labels are separated by said magnet from said first sample, thereby producing a second sample; and wherein said first sample is passed from said microfluidic device to said magnetic separator through a flow connector arranged to decouple a flow rate of said microfluidic device from a flow rate of said magnetic separator.
Method of detecting the level of melt and/or slag in a furnace vessel, comprising the steps: a) providing a measuring probe, wherein this has an elongate structure and wherein cavity extending in the direction of the longitudinal axis of the measuring probe is present in the measuring probe; b) placing an optical waveguide in the cavity of the measuring probe, wherein the optical waveguide is placed in the measuring probe to be removable without destruction; c) immersing the measuring probe inclusive of optical waveguide in the molten material present in the furnace vessel; and d) determining the temperature plot (T = T(x)) over at least a part of the length of the measuring probe by fibre-optical temperature measurement, wherein the method comprises exchange of the measuring probe after a predetermined time or after a predetermined state of wear of the measuring probe, the optical waveguide being placed in a new measuring probe. a) providing a measuring probe, wherein this has an elongate structure and wherein cavity extending in the direction of the longitudinal axis of the measuring probe is present in the measuring probe; b) placing an optical waveguide in the cavity of the measuring probe, wherein the optical waveguide is placed in the measuring probe to be removable without destruction; c) immersing the measuring probe inclusive of optical waveguide in the molten material present in the furnace vessel; and d) determining the temperature plot (T = T(x)) over at least a part of the length of the measuring probe by fibre-optical temperature measurement,
Skin care composition comprising from 0.05 to 5.0% by weight of a depolymerized hydroxypropyl guar having molar substitution comprised between 1.5 and 3.5 and RVT Brookfield® viscosity at 10 % by weight in water, 20 °C, 20 rpm from 50 to 5000 mPa*s together with an acceptable cosmetic or pharmaceutical carrier or diluent.
An arrangement comprising an article of furniture, a folding-sliding door mounted movably to the article of furniture, and an ejection device for ejecting the folding-sliding door mounted movably to the article of furniture from a closed position into an opening position, wherein the folding-sliding door is movable at least in a direction perpendicularly to the closing plane in which the folding-sliding door is arranged in its closed position and in a direction parallel to the closing plane, wherein the ejection device includes a force storage means to be loaded manually by a user and an ejection element which can be acted upon by the force storage means, characterised in that the force storage means can be loaded by a sliding movement of the folding-sliding door substantially in the direction parallel to the closing plane in the course of continued opening of the folding-sliding door following the ejection, preferably immediately, the ejection device has a loading device (14, 15) for loading the force storage means and an entrainment means for motionally coupling the folding-sliding door to the loading device (14, 15) at least upon loading of the force storage means, and the entrainment means is displaceable parallel to the closing plane in the mounted position of the ejection device.
A nipple, comprising: a solid nipple portion adapted to be inserted into the mouth of a user and at least one duct for conveying fluid through said solid nipple portion, said at least one duct extending from an inner chamber of the nipple to an outer opening of the solid nipple portion, wherein the solid nipple portion is formed of a material having a Shore A hardness of less than about 10, wherein the at least one duct conveys fluid at typical breast-feeding suction levels by substantially stopping fluid flow through said at least one duct when said solid nipple portion is compressed or elongated between said inner chamber and said outer opening. a solid nipple portion adapted to be inserted into the mouth of a user and at least one duct for conveying fluid through said solid nipple portion, said at least one duct extending from an inner chamber of the nipple to an outer opening of the solid nipple portion, wherein the solid nipple portion is formed of a material having a Shore A hardness of less than about 10, wherein the at least one duct conveys fluid at typical breast-feeding suction levels by substantially stopping fluid flow through said at least one duct when said solid nipple portion is compressed or elongated between said inner chamber and said outer opening.
Transport lock for a release system, in particular a slave cylinder of a motor vehicle, an axially movable piston and a clutch release bearing which is connected to the piston being arranged concentrically on a housing, a securing ring having a collar (6.2) which extends in the radial direction to the outside, and the said securing ring being fastened on the housing in an inner cavity of the clutch release bearing by means of snap-action hooks (6.3) and a complementary depression (1.3) on the housing, and the piston bearing by way of a bearing face (2.1) against the collar (6.2) of the securing ring, in such a way that the securing ring limits the axial movement of the piston, characterized in that the snap-action hooks (6.3) are configured in the form of radially inwardly pointing notches from a substantially cylindrical region of the securing ring.
Method for making a support of at least one substrate, including at least the implementation of the following steps: - making a stack including at least two substrates (102, 104), each of the two substrates (102, 104) comprising two opposite main faces (108, 110, 112, 114), both substrates being secured to each other such that one of the main faces of a first of the two substrates is positioned facing one of the main faces of the second of the two substrates and against an etch-stop material, - etching through the first of the two substrates and with stop on the etch-stop material, at least one location which is able to receive the substrate intended to be supported by the support. - making a stack including at least two substrates (102, 104), each of the two substrates (102, 104) comprising two opposite main faces (108, 110, 112, 114), both substrates being secured to each other such that one of the main faces of a first of the two substrates is positioned facing one of the main faces of the second of the two substrates and against an etch-stop material, - etching through the first of the two substrates and with stop on the etch-stop material, at least one location which is able to receive the substrate intended to be supported by the support.
A mobile terminal comprising: a wireless communication unit; a display configured to display an image; and a controller configured to: display, in response to a first touch applied to the display, a first input area overlapping with at least part of the image displayed on the display and wherein the image is seen through the overlapped region based on a translucent property of the first input area; receive a second touch within the first input area; and transmit data based on a touch trace corresponding to the second touch to a client terminal (200, 300) including one or more other terminals through the wireless communication unit in real time, wherein the first touch is a dragging performed from a first area located at an edge of the display toward a second area (A2, A3) located at an opposite edge of the display. a wireless communication unit; a display configured to display an image; and a controller configured to: display, in response to a first touch applied to the display, a first input area overlapping with at least part of the image displayed on the display and wherein the image is seen through the overlapped region based on a translucent property of the first input area; receive a second touch within the first input area; and transmit data based on a touch trace corresponding to the second touch to a client terminal (200, 300) including one or more other terminals through the wireless communication unit in real time, wherein the first touch is a dragging performed from a first area located at an edge of the display toward a second area (A2, A3) located at an opposite edge of the display. display, in response to a first touch applied to the display, a first input area overlapping with at least part of the image displayed on the display and wherein the image is seen through the overlapped region based on a translucent property of the first input area; receive a second touch within the first input area; and transmit data based on a touch trace corresponding to the second touch to a client terminal (200, 300) including one or more other terminals through the wireless communication unit in real time, wherein the first touch is a dragging performed from a first area located at an edge of the display toward a second area (A2, A3) located at an opposite edge of the display.
Plastic plate structure for manufacturing a concrete or reinforced concrete pipe unit with a plastic surface layer, the plate structure preferably comprising a cross-linked, thermosetting material and reinforcing fibres, characterised by that the plastic plate structure comprises a pipe-shaped shell and at least one barbed metal wire comprising a plurality of barbs is coiled onto the pipe-shaped shell, such that the barbs protrude from one surface of the plate structure.
A method comprising: assigning a priority level so that it is associated with each of a plurality of hydraulic loads (26, 28, 30); formulating a pulse width modulated control signal based on the assigned priority levels; transmitting the control signal to a plurality of digital valves (40, 70, 86), each valve operable to selectively fluidly connect at least one of the hydraulic loads (26, 28, 30) to a pressure source; sequentially actuating at least a subset of the digital valves (40, 70, 86) in response to the control signal; actuating each of the digital valves (40, 70, 86) no more than once over a single operating cycle; actuating the valves (40, 70, 86) in sequential order based on the assigned priority level of the associated hydraulic load (26, 28, 30); characterised by: basing each assigned priority level on a pressure requirement of the specific hydraulic load (26, 28, 30); and sequentially actuating the valves (40, 70, 86) commencing with the valve associated with the hydraulic load (26, 28, 30) having the highest pressure requirement and proceeding in sequential descending order based on the pressure requirements of the remaining hydraulic loads. assigning a priority level so that it is associated with each of a plurality of hydraulic loads (26, 28, 30); formulating a pulse width modulated control signal based on the assigned priority levels; transmitting the control signal to a plurality of digital valves (40, 70, 86), each valve operable to selectively fluidly connect at least one of the hydraulic loads (26, 28, 30) to a pressure source; sequentially actuating at least a subset of the digital valves (40, 70, 86) in response to the control signal; actuating each of the digital valves (40, 70, 86) no more than once over a single operating cycle; actuating the valves (40, 70, 86) in sequential order based on the assigned priority level of the associated hydraulic load (26, 28, 30); characterised by: basing each assigned priority level on a pressure requirement of the specific hydraulic load (26, 28, 30); and sequentially actuating the valves (40, 70, 86) commencing with the valve associated with the hydraulic load (26, 28, 30) having the highest pressure requirement and proceeding in sequential descending order based on the pressure requirements of the remaining hydraulic loads.
An analytical system comprising an analytical tool and a temperature detecting analytical device comprising a mounting portion for mounting the analytical tool capable of outputting information for computation, a computation unit for conducting computation for analyzing a sample based on said information for computation, and a temperature detection unit for outputting temperature information, wherein said analytical tool comprises an end portion and a reagent portion provided on a part of the analytical tool, wherein said mounting portion comprises an insertion portion for inserting said end portion of said analytical tool and a table portion for installing said analytical tool, characterized in that said temperature detection unit is disposed in said table portion so as to be located in a region directly below or in a region directly above said reagent portion when said analytical tool is mounted on said mounting portion with the end portion inserted into said insertion portion, and in that the temperature detecting analytical device further comprises a temperature correction unit for correcting the computation results obtained in said computation unit, based on said temperature information. wherein said analytical tool comprises an end portion and a reagent portion provided on a part of the analytical tool, wherein said mounting portion comprises an insertion portion for inserting said end portion of said analytical tool and a table portion for installing said analytical tool,
A method for determining effectiveness of a medicine containing an antibody as a component by employing a tissue staining method comprising the steps of: (a) labeling an antibody in the medicine containing an antibody as a component with a fluorescent material and contacting the fluorescence-labeled antibody with a tissue sample; (b) obtaining a fluorescence image by irradiating, with excitation light, a tissue site contacted with the antibody; (c) obtaining an autofluorescence image in the same field of view and at the same focus as in the fluorescence image in a close region on a shorter wavelength side or a longer wavelength side of an acquisition wavelength region of fluorescence emitted by the fluorescent material; and (d) obtaining a corrected fluorescence image by performing image processing for removing fluorescence brightness of the autofluorescence image from fluorescence brightness of the fluorescence image. (a) labeling an antibody in the medicine containing an antibody as a component with a fluorescent material and contacting the fluorescence-labeled antibody with a tissue sample; (b) obtaining a fluorescence image by irradiating, with excitation light, a tissue site contacted with the antibody; (c) obtaining an autofluorescence image in the same field of view and at the same focus as in the fluorescence image in a close region on a shorter wavelength side or a longer wavelength side of an acquisition wavelength region of fluorescence emitted by the fluorescent material; and (d) obtaining a corrected fluorescence image by performing image processing for removing fluorescence brightness of the autofluorescence image from fluorescence brightness of the fluorescence image.
A thermal trip compensation structure comprising a tripping bar having an ejector pin, a bimetal strip, a compensating component, a support for the compensating component, and an adjustment component, wherein one end of the bimetal strip is connected with the support for the compensating component; the support for the compensating component receives and supports the compensating component; and the adjustment component is capable of adjusting a position of the compensating component relative to the support for the compensating component; characterized in that the compensating component has an inclined slant surface, the inclined slant surface is set in such a way that a gap between the inclined slant surface and the ejector pin of the tripping bar upon the bimetal strip being deflected after occurrence of short circuit is less than the gap between the inclined slant surface and the ejector pin of the tripping bar upon the bimetal strip being not deflected before the occurrence of the short circuit, the support for the compensating component is provided with support grooves; a guide portion is provided on a side wall of the support groove; and a support aperture is provided on a bottom wall of the support groove. one end of the bimetal strip is connected with the support for the compensating component; the support for the compensating component receives and supports the compensating component; and the adjustment component is capable of adjusting a position of the compensating component relative to the support for the compensating component; characterized in that the compensating component has an inclined slant surface, the inclined slant surface is set in such a way that a gap between the inclined slant surface and the ejector pin of the tripping bar upon the bimetal strip being deflected after occurrence of short circuit is less than the gap between the inclined slant surface and the ejector pin of the tripping bar upon the bimetal strip being not deflected before the occurrence of the short circuit, the support for the compensating component is provided with support grooves; a guide portion is provided on a side wall of the support groove; and a support aperture is provided on a bottom wall of the support groove.
A polymer composition comprising an ethylene copolymer, said ethylene copolymer comprising copolymerized units of ethylene, 5 to 90 wt% of copolymerized units of a first α,β-unsaturated carboxylic acid having 3 to 10 carbon atoms; and optionally 2 to 40 wt% of copolymerized units of a derivative of a second α,β-unsaturated carboxylic acid having 3 to 10 carbon atoms; wherein the weight percentages of the copolymerized units are based on the total weight of the ethylene copolymer and the sum of the weight percentages of the copolymerized units is 100 wt%; and wherein optionally at least a portion of the carboxylic acid groups of the copolymerized units of the α,β-unsaturated carboxylic acid units are neutralized to form carboxylate salts; a hydroxyl-containing crosslinking agent; and an adjuvant, wherein the adjuvant is a silane.