mhurhangee/ep-ind-claims huggingface dataset:
Upper carriage for a construction machine with a box-like housing having essentially vertical side walls, wherein for access to the housing at least one housing opening with an access wall is provided, which is adjustable by means of an adjustment mechanism into an open position, and in an area in front of the housing opening a horizontal gangway is formed, wherein - on at least one side wall at least one pull-out element is provided, which can be pulled out horizontally between a retracted position and a pulled out position, in which the pull-out element projects horizontally from the housing, and - in order to form the gangway a base plate is provided on the pull-out element, charcterized in that - the access wall is built from several side wall elements (32, 56), - in that the pull-out element has a first side wall element which forms a part of the access wall, - in that in order to form the access wall provision is made above the first side wall element for an upper second side wall element which, for example for opening, is slidably or foldably supported in vertical upward direction, and - in that in the open position a protective roof is formed above the gangway by the upper second wall element or a railing element is formed on the ceiling area. - on at least one side wall at least one pull-out element is provided, which can be pulled out horizontally between a retracted position and a pulled out position, in which the pull-out element projects horizontally from the housing, and - in order to form the gangway a base plate is provided on the pull-out element, - the access wall is built from several side wall elements (32, 56), - in that the pull-out element has a first side wall element which forms a part of the access wall, - in that in order to form the access wall provision is made above the first side wall element for an upper second side wall element which, for example for opening, is slidably or foldably supported in vertical upward direction, and - in that in the open position a protective roof is formed above the gangway by the upper second wall element or a railing element is formed on the ceiling area.
Method for coprecipitation (or simultaneous precipitation) of at least one actinide in oxidation state with at least one actinide in oxidation state, wherein: a) a singly charged stabilizing cation consisting only of oxygen, carbon, nitrogen and hydrogen atoms, or a compound such as a salt capable of forming this cation, is added to one or more solutions of actinide(s) containing overall at least one actinide An 1 and at least one actinide An' 1, so as to obtain a solution, mixture, of at least one actinide An 1 in oxidation state, of at least one actinide An' 1 in oxidation state and of the said singly charged stabilizing cation, the value of the oxidation states and having optionally been obtained during a preliminary or simultaneous step of chemical or electrochemical reduction; b) a solution of oxalic acid or of one of its salts or of a derivative thereof is added to the said mixture, by means of which simultaneous precipitation of the said actinides An 1 and An' 1 and of a fraction of the singly charged stabilizing cation from the said mixture is carried out. a) a singly charged stabilizing cation consisting only of oxygen, carbon, nitrogen and hydrogen atoms, or a compound such as a salt capable of forming this cation, is added to one or more solutions of actinide(s) containing overall at least one actinide An 1 and at least one actinide An' 1, so as to obtain a solution, mixture, of at least one actinide An 1 in oxidation state, of at least one actinide An' 1 in oxidation state and of the said singly charged stabilizing cation, the value of the oxidation states and having optionally been obtained during a preliminary or simultaneous step of chemical or electrochemical reduction; b) a solution of oxalic acid or of one of its salts or of a derivative thereof is added to the said mixture, by means of which simultaneous precipitation of the said actinides An 1 and An' 1 and of a fraction of the singly charged stabilizing cation from the said mixture is carried out.
Method of angular measurement by means of a sensor comprising an axisymmetric resonator associated with means for setting the resonator into vibration and with means for detecting an orientation of the vibration with respect to a reference frame tied to the casing of the sensor and/or to the resonator, comprising the steps of applying a precession control so as to slave an orientation of the vibration to an angular setpoint value and of determining an angular measurement on the basis of the precession control, characterized in that the method comprises a phase of modulating the angular setpoint value in such a way that the said setpoint value uniformly sweeps an angular span of kn radians, k being an integer, in one direction and then in the opposite direction and in that a temporal derivative of the setpoint is deducted from the precession control prior to the determination of the angular measurement.
A method for forming a conductive via in a substrate comprising: providing a substrate having a first surface and an opposing, second surface; forming at least one blind via in the first surface of the substrate, the at least one blind via extending only partially through the substrate; applying a seed layer comprising a conductive seed material over the first surface of the substrate and over surfaces of the substrate defining the at least one blind via; performing an abrasive planarization process to remove portions of the seed layer overlying the first surface of the substrate while retaining portions of the seed layer within the at least one blind via; forming a conductive layer on the retained portions of the seed layer within the at least one blind via; filling a remaining space within the at least one blind via with conductive material; and removing material of the substrate from the opposing, second surface of the substrate to a depth sufficient to expose the conductive material. providing a substrate having a first surface and an opposing, second surface; forming at least one blind via in the first surface of the substrate, the at least one blind via extending only partially through the substrate; applying a seed layer comprising a conductive seed material over the first surface of the substrate and over surfaces of the substrate defining the at least one blind via; performing an abrasive planarization process to remove portions of the seed layer overlying the first surface of the substrate while retaining portions of the seed layer within the at least one blind via; forming a conductive layer on the retained portions of the seed layer within the at least one blind via; filling a remaining space within the at least one blind via with conductive material; and removing material of the substrate from the opposing, second surface of the substrate to a depth sufficient to expose the conductive material.
An exhaust gas purifying device (10, 20) for purifying exhaust gas discharged from an internal combustion engine, the device comprising: a first purifying body (13, 23) that is disposed on an upstream side of an exhaust flow path, and includes an oxidation catalyst for purifying HC and CO in the exhaust gas; a third purifying body that is disposed in the exhaust gas flow path on a side further downstream than the first purifying body (13, 23), and includes a NOx purifying catalyst for purifying NOx in exhaust gas in which an air-fuel ratio has been controlled to lean or rich; and a second purifying body (14, 24), disposed in the exhaust gas flow path on a side further downstream than the third purifying body, for purifying particulate matter in the exhaust gas, wherein the second purifying body (14, 24) includes a filter capable of collecting the particulate matter, and a particulate matter oxidation catalyst supported on the filter and made by co-loading Ag and Pd on a composite oxide having oxygen release capacity, and wherein the second purifying body (14, 24) further includes a NO 2 production catalyst that is supported on the filter and converts NO contained in the exhaust gas into NO 2. a first purifying body (13, 23) that is disposed on an upstream side of an exhaust flow path, and includes an oxidation catalyst for purifying HC and CO in the exhaust gas; a third purifying body that is disposed in the exhaust gas flow path on a side further downstream than the first purifying body (13, 23), and includes a NOx purifying catalyst for purifying NOx in exhaust gas in which an air-fuel ratio has been controlled to lean or rich; and a second purifying body (14, 24), disposed in the exhaust gas flow path on a side further downstream than the third purifying body, for purifying particulate matter in the exhaust gas, wherein the second purifying body (14, 24) includes a filter capable of collecting the particulate matter, and a particulate matter oxidation catalyst supported on the filter and made by co-loading Ag and Pd on a composite oxide having oxygen release capacity, and wherein the second purifying body (14, 24) further includes a NO 2 production catalyst that is supported on the filter and converts NO contained in the exhaust gas into NO 2.
A refrigerator comprising a body; a compartment which is disposed in the body and wherein the foodstuffs are placed; at least one UV light source which is positioned so as to emit light into the compartment; a sensor which detects at least one of the operational parameters of the UV light source such as temperature, intensity, ultraviolet wavelength and a control unit which controls the operation of the UV light source, characterized by an inverter which transmits power to the UV light source, a box wherein the inverter is disposed, and wherein the sensor is disposed in the box and measures the temperature of the inverter, and by the control unit which compares the temperature value for the case where the inverter is working so as to energize the UV light source with the temperature value predetermined by the producer for the case where the inverter is not working so as to decide whether the UV light source is malfunctioning or not.
An epoxy resin composition comprising: about 70 wt% to about 95 wt% by weight of the composition of an epoxy component; and about 5 wt% to about 30 wt% by weight of the of a curing component wherein the curing component is at least an aminoalkylimidazole curing agent; wherein the epoxy component and the curing component react together at a temperature of about 100°C to about 130°C to form a substantially cured reaction product in about 10 minutes or less; wherein the aminoalkylimidazole curing agent comprises the following structure: wherein R 1, R 2 and R 3 are each independently hydrogen, alkyl or aryl; and n is an integer from 2 to 6, wherein the resin composition has a cured glass transition temperature T g of about 110°C or greater, Tg being measured by DMA according to ASTM D7028, and wherein the epoxy resin composition further includes at least one hardener chosen from isophorone diamine ('IPDA'), 1,3-(bis(aminomethyl)cyclohexane ('BAC'), bis-(p-aminocyclohexyl)methane ('PACM'), diethylenetriamine ('DETA'), triethylenetetraamine ('TETA'), tetraethylenepentamine ('TEPA'), 4,7,10-trioxatridecane-1,13-diamine ('TTD') and mixtures thereof, wherein the at least one hardener is present in an amount of 1 wt% to 25 wt% by weight of the composition. about 70 wt% to about 95 wt% by weight of the composition of an epoxy component; and about 5 wt% to about 30 wt% by weight of the of a curing component wherein the curing component is at least an aminoalkylimidazole curing agent; wherein the epoxy component and the curing component react together at a temperature of about 100°C to about 130°C to form a substantially cured reaction product in about 10 minutes or less; wherein the aminoalkylimidazole curing agent comprises the following structure: wherein R 1, R 2 and R 3 are each independently hydrogen, alkyl or aryl; and n is an integer from 2 to 6, wherein the resin composition has a cured glass transition temperature T g of about 110°C or greater, Tg being measured by DMA according to ASTM D7028, and wherein the epoxy resin composition further includes at least one hardener chosen from isophorone diamine ('IPDA'), 1,3-(bis(aminomethyl)cyclohexane ('BAC'), bis-(p-aminocyclohexyl)methane ('PACM'), diethylenetriamine ('DETA'), triethylenetetraamine ('TETA'), tetraethylenepentamine ('TEPA'), 4,7,10-trioxatridecane-1,13-diamine ('TTD') and mixtures thereof, wherein the at least one hardener is present in an amount of 1 wt% to 25 wt% by weight of the composition.
A manufacturing method of a resin container, the manufacturing method comprising: a first injection molding process for injection-molding a first layer of a preform by using a first resin material, the first layer of the preform having a bottomed cylindrical shape and including a groove that extends in an axis direction; a second injection molding process for injecting a second resin material into the groove of the first layer, the second resin material having a color that is different from a color of the first resin material, and laminating a second layer on an outer peripheral side or an inner peripheral side of the first layer; and a blow-molding process for blow-molding a preform that includes multiple layers and has been obtained in the second injection molding process in a state where residual heat at a time of injection molding is contained, and manufacturing the resin container having a vertical-striped color pattern formed by using the second layer. a first injection molding process for injection-molding a first layer of a preform by using a first resin material, the first layer of the preform having a bottomed cylindrical shape and including a groove that extends in an axis direction; a second injection molding process for injecting a second resin material into the groove of the first layer, the second resin material having a color that is different from a color of the first resin material, and laminating a second layer on an outer peripheral side or an inner peripheral side of the first layer; and a blow-molding process for blow-molding a preform that includes multiple layers and has been obtained in the second injection molding process in a state where residual heat at a time of injection molding is contained, and manufacturing the resin container having a vertical-striped color pattern formed by using the second layer.
A method for profile machining comprises the steps of: providing an electrode having an electrode axis, a free axial end with an end face, and a peripheral surface other than the end face; energizing the electrode (12, 22, 32)and a workpiece having a thickness, with one of the workpiece and the electrode as an anode and the other as a cathode; and machining the workpiece with the peripheral surface of the electrode (13, 24, 35), during which the peripheral surface and the electrode axis of the electrode are across the workpiece in a thickness direction thereof, characterised in that when a portion of the electrode is worn down to a certain extent the electrode is moved in a direction of the electrode axis to have an unused portion on the electrode face the workpiece. providing an electrode having an electrode axis, a free axial end with an end face, and a peripheral surface other than the end face; energizing the electrode (12, 22, 32)and a workpiece having a thickness, with one of the workpiece and the electrode as an anode and the other as a cathode; and machining the workpiece with the peripheral surface of the electrode (13, 24, 35), during which the peripheral surface and the electrode axis of the electrode are across the workpiece in a thickness direction thereof, characterised in that when a portion of the electrode is worn down to a certain extent the electrode is moved in a direction of the electrode axis to have an unused portion on the electrode face the workpiece.
A method of determining variation between a query cell culture media and a reference cell culture media, the method comprising the steps of: - incubating a reference cell with an aliquot of the query culture media and at least three chemical cell stressors in wells of a microtitre plate; - determining an environmental response of the reference cell in the presence of the query cell culture media and each of the plurality of chemical cell stressors; - generating a query cell culture media specific environmental response fingerprint comprising the plurality of chemical cell stressor specific environmental responses; - comparing the query cell culture media-specific environmental response fingerprint with a reference media-specific environmental response fingerprints corresponding to a reference cell culture media and generated using the reference cell; - determining variation between the query cell culture media and the reference cell culture media based on the level of correlation between the query cell culture media-specific environmental response fingerprint and the reference media-specific environmental response fingerprints; and in which the environmental response fingerprint is selected from a growth response fingerprint and a production titer response fingerprint. - incubating a reference cell with an aliquot of the query culture media and at least three chemical cell stressors in wells of a microtitre plate; - determining an environmental response of the reference cell in the presence of the query cell culture media and each of the plurality of chemical cell stressors; - generating a query cell culture media specific environmental response fingerprint comprising the plurality of chemical cell stressor specific environmental responses; - comparing the query cell culture media-specific environmental response fingerprint with a reference media-specific environmental response fingerprints corresponding to a reference cell culture media and generated using the reference cell; - determining variation between the query cell culture media and the reference cell culture media based on the level of correlation between the query cell culture media-specific environmental response fingerprint and the reference media-specific environmental response fingerprints; and
A recuperator (30;130) configured to extend within an exhaust duct of a gas turbine engine, the recuperator comprising: exhaust passages (42;142) providing fluid flow communication between an exhaust inlet (50;150) and an exhaust outlet (52;152), the exhaust inlet (50;150) for receiving exhaust flow from a turbine of the engine and the exhaust outlet (52;152) for exhausting the exhaust flow, the exhaust passages (42;142) having an arcuate profile in a plane perpendicular to a central axis of the recuperator (30; 130) to reduce a swirl of the exhaust flow; air passages (40; 140) in heat exchange relationship with the exhaust passages (42;142) and providing fluid flow communication between an air inlet (56;156) and an air outlet (72; 172); an inlet connection member (58;158) defining the air inlet (56;156) and being designed to sealingly engage a first plenum in fluid flow communication with a compressor discharge of the gas turbine engine; and an outlet connection member (74;174) defining the air outlet (72;172) and being designed to sealingly engage a second plenum containing a combustor of the gas turbine engine, wherein the recuperator (30;130) or the exhaust duct includes circumferential splitters (54;54') extending upstream of the exhaust inlet (50;150) characterised in that the splitters (54;54') are curved in the plane perpendicular to the central axis of the recuperator (30;130) to reduce the swirl of the exhaust flow. exhaust passages (42;142) providing fluid flow communication between an exhaust inlet (50;150) and an exhaust outlet (52;152), the exhaust inlet (50;150) for receiving exhaust flow from a turbine of the engine and the exhaust outlet (52;152) for exhausting the exhaust flow, the exhaust passages (42;142) having an arcuate profile in a plane perpendicular to a central axis of the recuperator (30; 130) to reduce a swirl of the exhaust flow; air passages (40; 140) in heat exchange relationship with the exhaust passages (42;142) and providing fluid flow communication between an air inlet (56;156) and an air outlet (72; 172); an inlet connection member (58;158) defining the air inlet (56;156) and being designed to sealingly engage a first plenum in fluid flow communication with a compressor discharge of the gas turbine engine; and an outlet connection member (74;174) defining the air outlet (72;172) and being designed to sealingly engage a second plenum containing a combustor of the gas turbine engine, wherein the recuperator (30;130) or the exhaust duct includes circumferential splitters (54;54') extending upstream of the exhaust inlet (50;150) characterised in that the splitters (54;54') are curved in the plane perpendicular to the central axis of the recuperator (30;130) to reduce the swirl of the exhaust flow.
System comprising at least one first device and at least one second device, as well as at least one probe which is connected respectively to each second device, each first device comprising: - a main electrical power supply source and a substitute electrical power supply source which is adapted to supply electrical power to the first device in the case where the main electrical power supply source is inoperative, - a nonvolatile memory; and - a first optical emitter-receiver configured to perform optical communications with a second optical emitter-receiver of a said probe, when the said first and second optical emitter-receivers are placed facing one another, in such a way that the second device to which the said probe is connected is able to access the nonvolatile memory of the said first device within the framework of the said optical communications, each first device furthermore comprising a first coil and each probe comprising a second coil, so that the second device to which the said probe is connected provides the substitute electrical power supply source to the said first device by means of induction when the said first and second coils are placed facing one another, characterized in that the first coil of each first device surrounds the first optical emitter-receiver of the said first device, the second coil of each probe surrounds the second optical emitter-receiver of the said probe, each first device comprises a metallic washer positioned in such a way that the optical communications are performed via the hollowed-out centre of the said metallic washer, and in that each probe comprises a magnetized washer positioned in such a way that the optical communications are performed via the hollowed-out centre of the said magnetized washer, and when the metallic washer and the magnetized washer are placed one against the other, the first and second coils and the first and second optical emitter-receivers are respectively placed facing one another. - a main electrical power supply source and a substitute electrical power supply source which is adapted to supply electrical power to the first device in the case where the main electrical power supply source is inoperative, - a nonvolatile memory; and - a first optical emitter-receiver configured to perform optical communications with a second optical emitter-receiver of a said probe, when the said first and second optical emitter-receivers are placed facing one another, in such a way that the second device to which the said probe is connected is able to access the nonvolatile memory of the said first device within the framework of the said optical communications,