mhurhangee/ep-ind-claims huggingface dataset:
Heavy-duty swirling trough device, comprising: a vibrating trough for receiving plastics granules, which vibrating trough has a trough base and two opposite side walls (12a, 12b), the length of the vibrating trough in the longitudinal direction (a) being greater than the maximum height and width of a trough cross section perpendicular to the longitudinal direction; and at least two vibration exciters for generating a vibration excitation which has a transverse component (y) perpendicular to a plane formed by the longitudinal direction (a) and vertical direction (z); characterized by at least two trough supports, which are spaced apart from one another in the longitudinal direction (a) of the vibrating trough, each support the trough base and the side walls (12a, 12b) from the outside, and also bridge the vibrating trough on the side opposite the trough base, one of the vibration exciters being fastened to at least two of the trough supports in each case. a vibrating trough for receiving plastics granules, which vibrating trough has a trough base and two opposite side walls (12a, 12b), the length of the vibrating trough in the longitudinal direction (a) being greater than the maximum height and width of a trough cross section perpendicular to the longitudinal direction; and at least two vibration exciters for generating a vibration excitation which has a transverse component (y) perpendicular to a plane formed by the longitudinal direction (a) and vertical direction (z); characterized by at least two trough supports, which are spaced apart from one another in the longitudinal direction (a) of the vibrating trough, each support the trough base and the side walls (12a, 12b) from the outside, and also bridge the vibrating trough on the side opposite the trough base, one of the vibration exciters being fastened to at least two of the trough supports in each case.
A resorbable crosslinked form stable membrane for use in the oral cavity which comprises a composite layer of collagen material and inorganic ceramic particles containing 1.5 to 3.5 weight parts of inorganic ceramic for 1 weight part of collagen material, sandwiched between two layers of elastic pretensed collagen material, wherein the elastic pretensed collagen material is a collagen material that has been stretched such as to be in the linear/elastic region of the stress-strain curve, the collagen material comprising 50-100 % (w/w) collagen and 0-50 % (w/w) elastin.
A cryocooler compressor comprising: a control panel; and a compressor casing that includes a front panel and accommodates the control panel, wherein the front panel includes a first panel portion that provides a pipe connection, characterized in that the front panel includes a second panel portion that is removably connected to the first panel portion and on which the control panel is mounted. a control panel; and a compressor casing that includes a front panel and accommodates the control panel, wherein the front panel includes a first panel portion that provides a pipe connection, characterized in that the front panel includes a second panel portion that is removably connected to the first panel portion and on which the control panel is mounted.
A grease composition comprising a base oil consisting of a fluorinated oil, an antirust agent, and a thickening agent in an amount of 10-40% by mass based on the amount of the grease composition) wherein said antirust agent comprises an aliphatic dibasic acid salt of the formula in an amount of not less than 0.1% by mass and less than 1.0% by mass based on the total mass of the grease composition: (CH 2) n 2 M m wherein n is an integer of 1 to 19, M is an alkali or alkaline earth metal, m is 2 when M is an alkali metal and m is 1 when M is an alkaline earth metal; and said thickening agent is selected from the group consisting of silicon compounds, melamine cyanurate, and carbon black.
A method for forming an organosilicate film on a substrate comprising: providing a composite organosilicate film wherein the composite organosilicate film is deposited from a composition comprising at least one silicon-containing precursor and at least one porogen-containing precursor and wherein the composite organosilicate film comprises carbon-containing species; and treating the composite organosilicate film to a chemical comprising an oxidizer selected from the group consisting of ozone, ozonated water and sulfuric acid peroxide mixture, and combinations thereof, to remove at least a portion of the carbon-containing species contained therein and provide a porous organosilicate film wherein the refractive index and extinction coefficient of the porous organosilicate film are reduced when compared to the composite organosilicate film, wherein the method comprises exposition of the composite organosilicate film to an energy source comprising ultraviolet light, wherein the ultraviolet light is selected from the group consisting of near ultraviolet light and middle ultraviolet light; and wherein the exposing step is conducted prior to the treating step. providing a composite organosilicate film wherein the composite organosilicate film is deposited from a composition comprising at least one silicon-containing precursor and at least one porogen-containing precursor and wherein the composite organosilicate film comprises carbon-containing species; and treating the composite organosilicate film to a chemical comprising an oxidizer selected from the group consisting of ozone, ozonated water and sulfuric acid peroxide mixture, and combinations thereof, to remove at least a portion of the carbon-containing species contained therein and provide a porous organosilicate film wherein the refractive index and extinction coefficient of the porous organosilicate film are reduced when compared to the composite organosilicate film, wherein the method comprises exposition of the composite organosilicate film to an energy source comprising ultraviolet light, wherein the ultraviolet light is selected from the group consisting of near ultraviolet light and middle ultraviolet light; and wherein the exposing step is conducted prior to the treating step.
A combination of a wrinkle detection device and a layered body (40, 90) formed by stacking at least one electrode (30, 50) and separators, comprising: a light projector configured to, while moving relative to the layered body (40, 90), project slit light onto an outermost one of the separators; a shooting unit configured to shoot a shape of the slit light projected on the separator; and a determination unit configured to calculate an inclination of a surface of the separator, on which the slit light is projected, to a plane direction of the surface on the basis of the shot shape of the slit light, and to determine the existence of a wrinkle on the basis of the calculated inclination, wherein the determination unit is configured: to associate, on the basis of the shot shape of the slit light, an elevation with each of pixels representing an image of the separator shot by the shooting unit, and to determine whether or not each pixel represents part of the wrinkle by comparing the pixel with other pixels within a predetermined area in terms of an elevation difference. a light projector configured to, while moving relative to the layered body (40, 90), project slit light onto an outermost one of the separators; a shooting unit configured to shoot a shape of the slit light projected on the separator; and a determination unit configured to calculate an inclination of a surface of the separator, on which the slit light is projected, to a plane direction of the surface on the basis of the shot shape of the slit light, and to determine the existence of a wrinkle on the basis of the calculated inclination, wherein the determination unit is configured: to associate, on the basis of the shot shape of the slit light, an elevation with each of pixels representing an image of the separator shot by the shooting unit, and to determine whether or not each pixel represents part of the wrinkle by comparing the pixel with other pixels within a predetermined area in terms of an elevation difference. to associate, on the basis of the shot shape of the slit light, an elevation with each of pixels representing an image of the separator shot by the shooting unit, and to determine whether or not each pixel represents part of the wrinkle by comparing the pixel with other pixels within a predetermined area in terms of an elevation difference.
A projection display device (1000, 1001, 1002, 1003) comprising: a plurality of semiconductor lasers; a collimating lens configured to collimate a plurality of laser beams output from the plurality of semiconductor lasers; an integrator illumination system configured to overlap the plurality of laser beams collimated by the collimating lens to form a rectangular illumination region; a deflection element (210, 210B, 210G, 210R) arranged on a collimating lens side with respect to a position where the rectangular illumination region is formed by the integrator illumination system (INT; a transfer optical system (200, 320) configured to enlarge and transfer the rectangular illumination region deflection-scanned by the deflection element (210, 210B, 210G, 210R) to a reflective optical modulation element; and a projection lens configured to project video light output from the reflective optical modulation element. a plurality of semiconductor lasers; a collimating lens configured to collimate a plurality of laser beams output from the plurality of semiconductor lasers; an integrator illumination system configured to overlap the plurality of laser beams collimated by the collimating lens to form a rectangular illumination region; a deflection element (210, 210B, 210G, 210R) arranged on a collimating lens side with respect to a position where the rectangular illumination region is formed by the integrator illumination system (INT; a transfer optical system (200, 320) configured to enlarge and transfer the rectangular illumination region deflection-scanned by the deflection element (210, 210B, 210G, 210R) to a reflective optical modulation element; and a projection lens configured to project video light output from the reflective optical modulation element.
A wick for use in determining sufficiency of an amount of analyte fluid provided to an analyte test section of an assay device, the wick comprising: a primary wick portion attached to the analyte test section so as to be in fluid communication therewith, the primary wick portion having a receiving surface adapted for receiving the analyte fluid into a first area of the primary wick portion and being configured to draw the analyte fluid from the first area to a second area of the primary wick portion; and an indicator portion having a contrasting visual characteristic, the indicator portion being disposed so that some or all of the indicator portion is covered by at least a portion of the primary wick portion, wherein the indicator portion is entirely non-wicking, wherein the at least a portion of the primary wick portion comprises a first wicking material that becomes more light transmissive when the first wicking material is wetted by the analyte fluid, wherein the contrasting visual characteristic is viewable through the at least a portion of the primary wick portion only when the at least a portion of the primary wick portion is suffused by a predetermined amount of the analyte fluid, and wherein all of the indicator portion is located upstream of the analyte test section. a primary wick portion attached to the analyte test section so as to be in fluid communication therewith, the primary wick portion having a receiving surface adapted for receiving the analyte fluid into a first area of the primary wick portion and being configured to draw the analyte fluid from the first area to a second area of the primary wick portion; and an indicator portion having a contrasting visual characteristic, the indicator portion being disposed so that some or all of the indicator portion is covered by at least a portion of the primary wick portion, wherein the indicator portion is entirely non-wicking, wherein the at least a portion of the primary wick portion comprises a first wicking material that becomes more light transmissive when the first wicking material is wetted by the analyte fluid, wherein the contrasting visual characteristic is viewable through the at least a portion of the primary wick portion only when the at least a portion of the primary wick portion is suffused by a predetermined amount of the analyte fluid, and wherein all of the indicator portion is located upstream of the analyte test section.
An autoinjector device for use with a liquid product container, comprising a housing and electrodes (11, 12, 13, 14); characterized in that the housing is configured to internally receive the liquid product container, and the housing comprises: electrodes (11, 12, 13, 14) arranged circumferentially around the liquid product container when the liquid product container is received by the housing, wherein the electrodes (11, 12, 13, 14) are substantially linear and positioned substantially parallel with a length of the liquid product container; and electrical contacts (21, 22, 23, 24), each of the electrical contacts corresponding to an electrode, the electrical contacts accessible from the exterior of the housing of the autoinjector device, wherein the electrical contacts (21, 22, 23, 24) are configured to be in electrical communication with the electrodes (11, 12, 13, 14) when the liquid product container is received by the housing and receive an applied high voltage for detecting if there is a leak in the liquid product container. the housing is configured to internally receive the liquid product container, and the housing comprises: electrodes (11, 12, 13, 14) arranged circumferentially around the liquid product container when the liquid product container is received by the housing, wherein the electrodes (11, 12, 13, 14) are substantially linear and positioned substantially parallel with a length of the liquid product container; and electrical contacts (21, 22, 23, 24), each of the electrical contacts corresponding to an electrode, the electrical contacts accessible from the exterior of the housing of the autoinjector device, wherein the electrical contacts (21, 22, 23, 24) are configured to be in electrical communication with the electrodes (11, 12, 13, 14) when the liquid product container is received by the housing and receive an applied high voltage for detecting if there is a leak in the liquid product container. electrodes (11, 12, 13, 14) arranged circumferentially around the liquid product container when the liquid product container is received by the housing, wherein the electrodes (11, 12, 13, 14) are substantially linear and positioned substantially parallel with a length of the liquid product container; and electrical contacts (21, 22, 23, 24), each of the electrical contacts corresponding to an electrode, the electrical contacts accessible from the exterior of the housing of the autoinjector device, wherein the electrical contacts (21, 22, 23, 24) are configured to be in electrical communication with the electrodes (11, 12, 13, 14) when the liquid product container is received by the housing and receive an applied high voltage for detecting if there is a leak in the liquid product container.
Padded mailing envelope for receiving at least one dispatch object, wherein the mailing envelope comprises an opening for receiving the object at least on one side, wherein the mailing envelope is formed of a least one cut-to-size outer material, wherein a padded-material layer is arranged on an inner side of an outer material layer of the cut-to-size outer material facing the inner space of the mailing envelope, wherein the padded-material layer is formed of a paper foam, characterized in that the paper foam is present in the type of paper foam granules.
A nickel based superalloy consisting of 4.5-5.5 wt % Tungsten, 1.5-2.5 wt % Columbium (Cb), 4.5-5.5 wt % Tantalum (Ta), 0.5-5.0 wt % Titanium (Ti), and 0.5-3.0 wt % Aluminum (Al); and optionally: (i) 0-0.2 wt % Carbon; (ii) 0-0.35 wt % Manganese (Mn); (iii) 13-15 wt % Chromium (Cr); (iv) 3.4-5.5 wt % Molybdenum (Mo); (v) 0.005-0.015 wt % Boron; (vi) 0.05-0.12 wt % Zirconium (Zr); (vii) 0-1.0 wt % Iron (Fe); and/or (viii) 0-0.2 wt % Carbon, 0-0.35 wt % Manganese (Mn), 13-15 wt % Chromium (Cr), 0-1.0 wt % Cobalt (Co), 3.4-5.5 wt % Molybdenum (Mo), 0.005-0.015 wt % Boron, 0.05-0.12 wt % Zirconium (Zr), 0-1.0 wt % Iron (Fe), 0-0.5 wt % Copper (Cu), 0-0.00003 wt % Bismuth (Bi) and 0-0.0005 wt % Lead (Pb); with the balance being Nickel (Ni) plus incidental impurities. (i) 0-0.2 wt % Carbon; (ii) 0-0.35 wt % Manganese (Mn); (iii) 13-15 wt % Chromium (Cr); (iv) 3.4-5.5 wt % Molybdenum (Mo); (v) 0.005-0.015 wt % Boron; (vi) 0.05-0.12 wt % Zirconium (Zr); (vii) 0-1.0 wt % Iron (Fe); and/or (viii) 0-0.2 wt % Carbon, 0-0.35 wt % Manganese (Mn), 13-15 wt % Chromium (Cr), 0-1.0 wt % Cobalt (Co), 3.4-5.5 wt % Molybdenum (Mo), 0.005-0.015 wt % Boron, 0.05-0.12 wt % Zirconium (Zr), 0-1.0 wt % Iron (Fe), 0-0.5 wt % Copper (Cu), 0-0.00003 wt % Bismuth (Bi) and 0-0.0005 wt % Lead (Pb);
Channel system for optimising the relation between pressure drop and heat, moisture and/or mass transfer of fluids flowing through said system, said channel system comprising at least one channel having at least one channel wall and at least one flow director (7a, 7b) having a predetermined height (h 1), said flow director extending in a fluid flow direction and transversely to said channel, and comprising an upstream portion, a downstream portion and an intermediate portion between said upstream and downstream portions (9, 11), said upstream portion deviating, in said fluid flow direction, from said channel wall inwardly into said channel, and said downstream portion returning, in said fluid flow direction, towards said channel wall, wherein said height (h 1) of said flow director is larger than 0.35 times a height of said channel, taken in a similar direction as the height (h 1) of said flow director, and wherein said channel has a first cross-section area A 1, and a second cross-section area A 2 at the flow director (7a, 7b), wherein said channel has a triangular or trapezoidal cross-section, the ratio of area A 1 to area A 2, that is A 1 /A 2, is greater than 1.5, preferably greater than 2.5, and more preferably greater than 3, the height of said channel is less than 4 mm, a transition between said intermediate portion and said downstream portion is curved with a predetermined radius (R 3), characterised in that said predetermined radius (R 3) is 0.35*h 1 -2.1*h 1, and preferably 0.35*h 1 -1.1*h 1, said radius (R 3) directs a major part of said fluid towards said channel wall creating an eddy, which is created due to an expanding cross-section of said channel.
A winding device for winding strand-like coilable material onto a rotating spool, comprising a traversing mechanism by means of which the coilable material is guided to the run-on point at which the coilable material enters onto the winding on the spool and which is movable substantially in the direction of the rotational axis of the spool, further comprising at least one sensor for determining the run-on angle of the coilable material between a perpendicular on the rotational axis of the spool and the run-on axis along which the coilable material enters onto the winding on the spool, wherein the winding device is designed such that the displacement of the traversing mechanism during the winding process is regulated as a function of the run-on angle determined by the at least one sensor, wherein the distance between the run-off point, at which the coilable material leaves the traversing mechanism, and the run-on point during the winding process amounts, at least intermittently, to no more than quadruple, preferably no more than double, further preferably is at most equal to the diameter of the coilable material, wherein the traversing mechanism comprises a traversing lance along which the coilable material is guided to the run-on point onto the winding on the spool, characterized in that the traversing lance is in itself movable in a plane which comprises the run-on axis and which is parallel to the rotational axis of the spool, and that the traversing lance is of multi-part configuration, wherein at least two of its parts (13a, 13b) are movably connected together by a joint or a hinge such that the run-on axis and thus the run-on angle can be changed by the traversing lance in itself moving in said plane.
A method comprising: irradiating edible residues, wherein the edible residues have been produced as a by-product of bioprocessing a feedstock comprising a cellulosic and/or lignocellulosic feedstock to produce a sugar, wherein the edible residues contain an antibiotic, and irradiating is performed under conditions selected to inactivate or destroy the antibiotic. irradiating edible residues, wherein the edible residues have been produced as a by-product of bioprocessing a feedstock comprising a cellulosic and/or lignocellulosic feedstock to produce a sugar, wherein the edible residues contain an antibiotic, and irradiating is performed under conditions selected to inactivate or destroy the antibiotic.
A coupling arrangement for a rail vehicle for coupling the rail vehicle with a second rail vehicle, wherein said arrangement comprises: - a coupling rod for mechanically connecting and thereby for coupling the rail vehicles (1, 2), - a supporting structure (17, 35), by which the coupling rod can be connected with the rail vehicle, wherein the coupling rod is pivotable in relation to the supporting structure (17, 35) such that the coupling rod can pivot correspondingly while the intercoupled rail vehicles (1,2) are travelling through a curve, - at least one spring device (21,30), which is attached to the supporting structure (17,35) and is arranged in such a way that the coupling rod, at least in a first predefined operating state of the arrangement, can be brought in a predefined range of pivoting positions relative to the supporting structure (17, 35) and as a result thereof can remain in the predefined range of pivoting positions solely by exerting a force via the coupling rod onto the spring device (21, 30) so that a corresponding opposing force generated by the spring device (21, 30) would pivot the coupling rod towards a neutral position with a reduction of the exerted force, in which the coupling rod would be oriented with its longitudinal axis in the direction of travel of the coupled rail vehicles (1, 2) when travelling straight ahead, characterized in that the spring device (21, 30) is not permanently coupled with the coupling rod. - a coupling rod for mechanically connecting and thereby for coupling the rail vehicles (1, 2), - a supporting structure (17, 35), by which the coupling rod can be connected with the rail vehicle, wherein the coupling rod is pivotable in relation to the supporting structure (17, 35) such that the coupling rod can pivot correspondingly while the intercoupled rail vehicles (1,2) are travelling through a curve, - at least one spring device (21,30), which is attached to the supporting structure (17,35) and is arranged in such a way that the coupling rod, at least in a first predefined operating state of the arrangement, can be brought in a predefined range of pivoting positions relative to the supporting structure (17, 35) and as a result thereof can remain in the predefined range of pivoting positions solely by exerting a force via the coupling rod onto the spring device (21, 30) so that a corresponding opposing force generated by the spring device (21, 30) would pivot the coupling rod towards a neutral position with a reduction of the exerted force, in which the coupling rod would be oriented with its longitudinal axis in the direction of travel of the coupled rail vehicles (1, 2) when travelling straight ahead,