mhurhangee/ep-ind-claims huggingface dataset:
A microchannel plate assembly comprised of one or a plurality of laminated microchannel plates (5, 6), and an input-side electrode (4, 41, 42, 43) and output-side electrode (7, 71) which sandwich both surfaces of said microchannel plate(s) (5, 6) and integrally fix, wherein each of the input-side electrode (4, 41, 42, 43) and output-side electrode (7, 71) has a contact face (4a, 7a, 41a, 42a) that contacts the microchannel plate surface (5a, 6b) to fix the same at an inner edge side, and further having a separation surface (4b, 7b, 42c) retracted in a direction to be separated from the microchannel plate (5, 6) surface at a periphery of the contact face (4a, 7a, 41a, 42a) of at least one of the input-side electrode (4, 41, 42, 43) and output-side electrode (7, 71), characterized in that the input-side electrode (4, 41, 42, 43) and the output-side electrode (7, 71) are annular shaped and the contact face (4a, 7a, 41a, 42a) is substantially annular, each of the input-side electrode (4, 41, 42, 43) and output-side electrode (7, 71) is provided with a through-hole, and the microchannel plate assembly further comprising either: I. a fixing member (1, 2, 3, 8) for fixing the microchannel plate (5, 6) by further sandwiching from both sides of microchannel plate (5, 6) sandwiched between the input-side electrode (4, 41, 42, 43) and the output-side electrode (7, 71) and being screw-mounted further outside of a periphery of the microchannel plate (5, 6), or II. a case (81, 11) for storing and fixing the microchannel plate (5, 6) sandwiched between the input-side electrode (4, 41, 42, 43) and the output-side electrode (7, 71). I. a fixing member (1, 2, 3, 8) for fixing the microchannel plate (5, 6) by further sandwiching from both sides of microchannel plate (5, 6) sandwiched between the input-side electrode (4, 41, 42, 43) and the output-side electrode (7, 71) and being screw-mounted further outside of a periphery of the microchannel plate (5, 6), or II. a case (81, 11) for storing and fixing the microchannel plate (5, 6) sandwiched between the input-side electrode (4, 41, 42, 43) and the output-side electrode (7, 71).
Liquid developer dispersion for use in a digital printing apparatus comprising a non volatile carrier liquid, marking particles and a dispersing compound or a combination of dispersing compounds, which marking particles in the liquid developer dispersion are stabilized and homogeneously dispersed in the carrier liquid during storage and during printing before fusing and wherein during fusing at fusing temperature between 80°C and 170°C two macroscopically different phases are formed in that the marking particles melt and form a continuous marking particle phase, that is separated from a carrier liquid phase, wherein the marking particles are extrudates of colored particles and binder resin, and have a diameter of 0.5 to 4.0 μm, wherein the binder resin is a polyester resin, and wherein the marking particle has a glass transition temperature in the range of 40-70 °C, wherein the dispersion meets a conductivity test such that the conductivity of the carrier liquid phase, formed after putting a liquid developer dispersion with at least 20wt% marking particles on a hotplate of 150°C, is less than 5 times conductivity A + 5 pS/cm, wherein conductivity A is the conductivity of the carrier liquid obtainable by centrifuging the developer dispersion and separating of the carrier liquid.
A method for analyzing a sample of unknown composition, the method comprising: illuminating a portion of the sample with a first beam of penetrating radiation, the first beam characterized by a first pre-specified set of beam settings with a first tube voltage and detecting x-ray emission emanating from the sample; illuminating the portion of the sample with a second beam of penetrating radiation, the second beam characterized by a second pre-specified set of beam settings with a second tube voltage higher than the first tube voltage and detecting x-ray emission emanating from the sample; performing a complete spectral analysis of the x-ray emission from both first and second beams of penetrating radiation using Fundamental Parameter analysis; determining if the complete spectral analysis provides convergence of the fundamental parameter results within specified limits of certainty then generating a measure of the elemental composition of the sample and if not then re-analysing the x-ray emission from both first and second beams of penetrating radiation using an alternative Fundamental Parameter analysis and generating a measure of the elemental composition of the sample from the re-analysis; and categorizing the composition of the sample as one of predominantly non-metal and predominantly metal based on the measure of the elemental composition from the complete spectral analysis. illuminating a portion of the sample with a first beam of penetrating radiation, the first beam characterized by a first pre-specified set of beam settings with a first tube voltage and detecting x-ray emission emanating from the sample; illuminating the portion of the sample with a second beam of penetrating radiation, the second beam characterized by a second pre-specified set of beam settings with a second tube voltage higher than the first tube voltage and detecting x-ray emission emanating from the sample; performing a complete spectral analysis of the x-ray emission from both first and second beams of penetrating radiation using Fundamental Parameter analysis; determining if the complete spectral analysis provides convergence of the fundamental parameter results within specified limits of certainty then generating a measure of the elemental composition of the sample and if not then re-analysing the x-ray emission from both first and second beams of penetrating radiation using an alternative Fundamental Parameter analysis and generating a measure of the elemental composition of the sample from the re-analysis; and categorizing the composition of the sample as one of predominantly non-metal and predominantly metal based on the measure of the elemental composition from the complete spectral analysis.
A pavement marking composition comprising: (a) an isocyanate-containing component; (b) an amine-containing component; and (c) reflective elements; wherein at least one of said components comprises plasticizer and at least one of said components comprises filler, and wherein the composition comprises 5 wt.% or more plasticizer and is substantially free of polyaspartic ester amines, wherein the pavement marking composition exhibits a track-free time of 360 seconds or less according to ASTM D 711-10. (a) an isocyanate-containing component; (b) an amine-containing component; and (c) reflective elements;
A process for modifying a post-consumer recycled polyolefin composition comprising the steps of providing a post-consumer recycled polyolefin composition having a starting melt flow rate MFR 2, determined according to ISO 1133 at 2.16 kg load, 230 °C, in the range of from 1.0 to 100 g/10 min, and comprising, based on the total weight of the post-consumer recycled polyolefin composition, determined by FTIR spectroscopy, (a) at least 50 wt.-% of one or more propylene (co)polymer component(s) and (b) up to 50 wt.-% of one or more ethylene (co)polymer component(s); adding 0.10 to 1.50 wt.-%, based on the total weight of the post-consumer recycled polyolefin composition, of a radical initiator to the post-consumer recycled polyolefin composition and optionally mixing the components to form a mixture; adding 0.05 to 0.50 wt.-%, based on the total weight of the post-consumer recycled polyolefin composition, of a twofold unsaturated hydrocarbon compound having the general formula CH 2 =CH- -CH=CH 2, wherein R may be present or absent, and if being present, R is an aliphatic or aromatic hydrocarbon group comprising from 1 to 6 carbon atoms, and mixing the components to form a mixture; and extruding the mixture at a temperature in the range of from 180 to 300 °C to obtain a modified polyolefin composition having a final melt flow rate MFR 2, determined according to ISO 1133 at 2.16 kg load, 230 °C; wherein the ratio of MFR 2: MFR 2 is below 1.00. providing a post-consumer recycled polyolefin composition having a starting melt flow rate MFR 2, determined according to ISO 1133 at 2.16 kg load, 230 °C, in the range of from 1.0 to 100 g/10 min, and comprising, based on the total weight of the post-consumer recycled polyolefin composition, determined by FTIR spectroscopy, (a) at least 50 wt.-% of one or more propylene (co)polymer component(s) and (b) up to 50 wt.-% of one or more ethylene (co)polymer component(s); (a) at least 50 wt.-% of one or more propylene (co)polymer component(s) and (b) up to 50 wt.-% of one or more ethylene (co)polymer component(s); adding 0.10 to 1.50 wt.-%, based on the total weight of the post-consumer recycled polyolefin composition, of a radical initiator to the post-consumer recycled polyolefin composition and optionally mixing the components to form a mixture; adding 0.05 to 0.50 wt.-%, based on the total weight of the post-consumer recycled polyolefin composition, of a twofold unsaturated hydrocarbon compound having the general formula CH 2 =CH- -CH=CH 2, wherein R may be present or absent, and if being present, R is an aliphatic or aromatic hydrocarbon group comprising from 1 to 6 carbon atoms, and mixing the components to form a mixture; and wherein R may be present or absent, and if being present, R is an aliphatic or aromatic hydrocarbon group comprising from 1 to 6 carbon atoms, and mixing the components to form a mixture; and extruding the mixture at a temperature in the range of from 180 to 300 °C to obtain a modified polyolefin composition having a final melt flow rate MFR 2, determined according to ISO 1133 at 2.16 kg load, 230 °C;
A dewar vessel storage apparatus configured to hold at least two dewar vessels containing liquefied gas or cryo-compressed gas, comprising: a box having an outer, thermally insulating, wall; the box comprising a plurality of insulating cavities, each cavity configured to receive a single dewar vessel and is thermally insulated from each other cavity; each cavity including a separately removable thermally insulating bung configured to close an open end of its cavity; a ventilation assembly comprising at least one conduit within the box configured to provide for venting of gas released from the dewar vessels when stored in the respective cavities of the box, the ventilation assembly configured to provide a gas outlet flow path from each cavity, wherein the ventilation assembly includes a releasable connector configured to releasably couple the outlet flow path of one of the cavities to a pressure relief valve of a dewar vessel inserted into said one of the cavities for receiving boiled-off gas from the dewar vessel, wherein the releasable connector is arranged at a base of the cavity such that a connection is made between the dewar vessel and the ventilation assembly when the dewar vessel is substantially completely inserted into said cavity, wherein each cavity and its associated bung is configured complimentary to the shape of the dewar vessel it is configured to receive such that there is substantially no air space when the dewar vessel is received in the cavity and the bung is in place. a box having an outer, thermally insulating, wall; the box comprising a plurality of insulating cavities, each cavity configured to receive a single dewar vessel and is thermally insulated from each other cavity; each cavity including a separately removable thermally insulating bung configured to close an open end of its cavity; a ventilation assembly comprising at least one conduit within the box configured to provide for venting of gas released from the dewar vessels when stored in the respective cavities of the box, the ventilation assembly configured to provide a gas outlet flow path from each cavity, wherein the ventilation assembly includes a releasable connector configured to releasably couple the outlet flow path of one of the cavities to a pressure relief valve of a dewar vessel inserted into said one of the cavities for receiving boiled-off gas from the dewar vessel, wherein the releasable connector is arranged at a base of the cavity such that a connection is made between the dewar vessel and the ventilation assembly when the dewar vessel is substantially completely inserted into said cavity, wherein each cavity and its associated bung is configured complimentary to the shape of the dewar vessel it is configured to receive such that there is substantially no air space when the dewar vessel is received in the cavity and the bung is in place.
Panel processing apparatus with a feeding table, a removal table, a processing device arranged between the feeding table and the removal table, at least one light signaling device which is arranged at a position which can be seen by an operator and is configured such that the light emitted by the device can reach directly the eyes of the operator, and a controller for controlling the light signaling device, wherein the panel processing apparatus comprises a detecting device which detects at least one property of a workpiece and/or of a handling of the workpiece by the operator and which is connected to the controller which drives the light signaling device depending on the detected property of the workpiece and/or the detected property of handling, characterized in that the light signaling device is configured as a line and extends at least partially parallel to a pressure beam and/or extends at least partially orthogonally to the pressure beam.
A method for performing enrichment of an electrode of an electrochemical device, with an ionic species, said method comprising the following steps: - providing a substrate provided with at least one stack comprising: ∘ a first current collector covering at least a part of the substrate, ∘ a first electrode covering at least a part of the first collector, the first electrode being in electric contact with the first current collector, ∘ a protective layer totally covering the first electrode and at least a part of the first current collector, the protective layer being electrically insulating and ionically conducting, - immersing in an electrolytic solution: ∘ the substrate provided with the stack, ∘ a counter-electrode made from conducting material, the electrolytic solution comprising at least one salt of the ionic species and/or the counter-electrode comprising said ionic species, - applying an electric voltage or current, by means of a voltage or current generator, between the first current collector and the counter-electrode so as to make the ionic species migrate to the first electrode and to enrich the first electrode with the ionic species, - depositing a second electrode on the protective layer after enrichment of the first electrode with the ionic species. - providing a substrate provided with at least one stack comprising: ∘ a first current collector covering at least a part of the substrate, ∘ a first electrode covering at least a part of the first collector, the first electrode being in electric contact with the first current collector, ∘ a protective layer totally covering the first electrode and at least a part of the first current collector, the protective layer being electrically insulating and ionically conducting, ∘ a first current collector covering at least a part of the substrate, ∘ a first electrode covering at least a part of the first collector, the first electrode being in electric contact with the first current collector, ∘ a protective layer totally covering the first electrode and at least a part of the first current collector, the protective layer being electrically insulating and ionically conducting, - immersing in an electrolytic solution: ∘ the substrate provided with the stack, ∘ a counter-electrode made from conducting material, the electrolytic solution comprising at least one salt of the ionic species and/or the counter-electrode comprising said ionic species, ∘ the substrate provided with the stack, ∘ a counter-electrode made from conducting material, the electrolytic solution comprising at least one salt of the ionic species and/or the counter-electrode comprising said ionic species, - applying an electric voltage or current, by means of a voltage or current generator, between the first current collector and the counter-electrode so as to make the ionic species migrate to the first electrode and to enrich the first electrode with the ionic species, - depositing a second electrode on the protective layer after enrichment of the first electrode with the ionic species.
A method for removing a heat check feature from a casting using a heat check removal assembly, comprising the steps of: providing a casting with a heat check feature; providing a robotic arm; providing a laser head connected to the robotic arm; providing a heat check sensor located on the robotic arm; providing a control unit for receiving readings from the heat check sensor wherein the control unit comprises a processor and a memory having machine readable non-transitory storage; determining a location and depth of the heat check feature, including scanning the casting with the heat check sensor by moving the heat check sensor with the robotic arm; developing a casting profile with the control unit based on readings from the heat check sensor; projecting a beam of laser light onto the heat check feature location, including moving the beam of laser light with the robotic arm; and removing at least a portion of the heat check feature with the beam of laser light, wherein the control unit directs the laser head with the robotic arm to project the beam of laser light onto at least a portion of the heat check feature based on the casting profile. providing a casting with a heat check feature; providing a robotic arm; providing a laser head connected to the robotic arm; providing a heat check sensor located on the robotic arm; providing a control unit for receiving readings from the heat check sensor wherein the control unit comprises a processor and a memory having machine readable non-transitory storage; determining a location and depth of the heat check feature, including scanning the casting with the heat check sensor by moving the heat check sensor with the robotic arm; developing a casting profile with the control unit based on readings from the heat check sensor; projecting a beam of laser light onto the heat check feature location, including moving the beam of laser light with the robotic arm; and removing at least a portion of the heat check feature with the beam of laser light, wherein the control unit directs the laser head with the robotic arm to project the beam of laser light onto at least a portion of the heat check feature based on the casting profile.
A connector assembly for connecting pipes comprising: a connector formed with a hollow into which a pipe is insertable, a large diameter portion being included on at least one side of both end portions of the hollow, the large diameter portion being formed to have a relatively large inner diameter and having a housing space inside; a ring-shaped sealing member provided in the housing space; and a grip member provided adjacent to the sealing member in the housing space, the grip member has a body portion formed to contact along an inner circumferential surface of the large diameter portion, and a pair of sharp portions that is formed in shapes corresponding to each other to be bent from both sides of the body portion, and is formed so as to partially bite into the outer circumferential surface of the pipe when inserted into the hollow by crimping the outer circumferential surface of the large diameter portion, characterized in that the bending strength of the body portion is set to be relatively lower than the bending strength of the sharp portions, and under the condition of crimping the outer circumferential surface of the large diameter portion, the body portion is bending-deformed toward a central axis of the connector and the sharp portions spread to both sides in opposite directions. a connector formed with a hollow into which a pipe is insertable, a large diameter portion being included on at least one side of both end portions of the hollow, the large diameter portion being formed to have a relatively large inner diameter and having a housing space inside; a ring-shaped sealing member provided in the housing space; and a grip member provided adjacent to the sealing member in the housing space, the grip member has a body portion formed to contact along an inner circumferential surface of the large diameter portion, and a pair of sharp portions that is formed in shapes corresponding to each other to be bent from both sides of the body portion, and is formed so as to partially bite into the outer circumferential surface of the pipe when inserted into the hollow by crimping the outer circumferential surface of the large diameter portion, characterized in that the bending strength of the body portion is set to be relatively lower than the bending strength of the sharp portions, and under the condition of crimping the outer circumferential surface of the large diameter portion, the body portion is bending-deformed toward a central axis of the connector and the sharp portions spread to both sides in opposite directions.
Method for operating a compressed air system of a vehicle, having an electronically controlled airdrying device which has at least two drying cartridges which are operated alternatively or independently of one another in a feed mode for drying compressed air, generated by means of a compressor, for supplying the compressed air system, and in a regeneration mode for eliminating moisture which has collected in the drying cartridges, wherein the moisture content of the drying cartridges is continuously detected or calculated, characterized in that the feed time periods and the regeneration time periods of the drying cartridges are matched to one another by means of control measures as a function of their respective current moisture content or a variable which is derived therefrom or is equivalent thereto, in such a way that these control measures counteract unequal moisture contents of the drying cartridges compared to one another in the direction of reducing the moisture content.
An operating device for a robot-assisted surgery system, with a manually actuatable operating element comprising two straps (132, 134) for receiving one finger of a user each, and with an interface for attaching the operating device to a holding unit, wherein the operating element, when the operating device is attached to the holding unit, is rotatable relative to the interface about a first axis of rotation, a second axis of rotation and a third axis of rotation, the three axes of rotation (106, 114, 126) each being orthogonal to each other, wherein the three axes of rotation (106, 114, 126) intersect in a common point of intersection, characterized in that the operating element comprises a disk-like basic body, and that the two straps (132, 134) are arranged on both sides (128, 130) of the basic body.
Axle assembly for a vehicle, in particular a road vehicle, wherein the axle assembly has an axle having an axle member and having end-side axle hub units, wherein a stabilizing installation which has a stabilizing element, in particular a torsion bar, having an assembly fitting which is disposed on both ends of the stabilizing element and is assembled on an axle hub unit is disposed in the hollow axle member, wherein the hollow axle member has a lateral casing opening, characterized in that the axle hub units are in each case fastened to one end of the axle member and have in each case one connector for fastening a vehicle wheel as well as in each case one connector for a trailing arm, and wherein the stabilizing installation, in particular the assembly fitting, is fastened in a weld-free manner in the hollow axle member, and the stabilizing installation, in particular the assembly fitting, has a support member which is fixedly connected to the stabilizing element at the end region of the latter and projects transversely from the elongate stabilizing element.