mhurhangee/ep-ind-claims huggingface dataset:
A method of continuous intensive glass melting in a glass furnace operating with gas or oil combustion in air or oxygen as a main source of heating from a batch containing raw materials of mineral and/or chemical origin, wherein the batch is continuously fed to the furnace and Joule-heated by a plurality of electrodes and a plurality of bubbling gas streams is injected into a glass melt, wherein each electrode is shaped as a hollow tube to form an integrated electrode-bubbler for both heating the batch and injecting a bubbling gas stream into the melt, whereby the integrated electrode-bubblers are arranged at the bottom of the melting tank of the furnace characterised in that the arrangement of the integrated electrode bubblers at the bottom of the melting tank at least partially overlaps the longitudinal axis of the melting tank, whereby the bubbling gas is selected from: (i) a hydrocarbon gas or a mixture of such gases; (ii) steam. (i) a hydrocarbon gas or a mixture of such gases; (ii) steam.
A bone plate system, comprising a bone plate with a through-hole, a pressure plate, and a bone screw, wherein the through-hole has a seat surface with a variable angle for the bone screw, and wherein, in a connected state of the system, the bone screw is inserted into the through-hole and a head of the bone screw is enclosed between the bone plate and the pressure plate, wherein a screw connection (17, 22) comprising two fastening screws is provided for fastening the pressure plate to the bone plate, characterized in that the axes of the fastening screws are spread apart such that the distance between the axes of the fastening screws increases in the screwing-in direction.
An optoelectronic sensor for recognizing objects within a monitored zone, comprising a transmitter unit having a transmission element for transmitting transmitted light beams into the monitored zone; and/or a receiver unit having a reception element for receiving received light beams of the object, wherein the receiver unit and/or the transmitter unit has/have at least one electronic card and at least one mirror element for deflecting the light beams (6, 9); and wherein the mirror element is formed from amorphous metal, characterized in that the mirror element is connected to a defined electrical potential of the electronic card to improve the electromagnetic compatibility of the optoelectronic sensor.
In vitro method for producing a composition comprising secretory-like IgA and/or secretory-like IgM comprising the steps of (a) Obtaining a blood-derived protein composition comprising J chain-containing immunoglobulin, (b) admixing the composition of step (a) with secretory component, wherein no purification step specifically designed to separate J chain-containing dimeric IgA or polymers from other proteins, like affinity chromatography or size exclusion and selection of the fraction of the relevant molecular mass, is performed to obtain the composition of step (a). (a) Obtaining a blood-derived protein composition comprising J chain-containing immunoglobulin, (b) admixing the composition of step (a) with secretory component,
Fire alarm for detecting a fire, having a sensor system for capturing fire-specific measured values, having an evaluation unit for detecting the fire on the basis of the fire-specific measured values, having a control device designed for manually adjusting the evaluation sensitivity of the fire alarm on the fire alarm, the control device being arranged in or on the fire alarm, wherein the evaluation sensitivity is adjustable to at least three sensitivity levels, wherein the evaluation sensitivity is defined by at least one limit value of the captured fire-specific measured values, the at least one limit value stipulating a trigger limit of the evaluation unit for detecting the fire, characterized in that the sensor system comprises a plurality of sensors, wherein the at least three sensitivity levels each have an associated sensor of different sensor design and/or an associated different selection of the plurality of sensors, the selection of different sensors resulting in the evaluation sensitivity being based on different fire-specific measured values. having a sensor system for capturing fire-specific measured values, having an evaluation unit for detecting the fire on the basis of the fire-specific measured values, having a control device designed for manually adjusting the evaluation sensitivity of the fire alarm on the fire alarm, the control device being arranged in or on the fire alarm, wherein the evaluation sensitivity is adjustable to at least three sensitivity levels, wherein the evaluation sensitivity is defined by at least one limit value of the captured fire-specific measured values, the at least one limit value stipulating a trigger limit of the evaluation unit for detecting the fire, characterized in that the sensor system comprises a plurality of sensors, wherein the at least three sensitivity levels each have an associated sensor of different sensor design and/or an associated different selection of the plurality of sensors, the selection of different sensors resulting in the evaluation sensitivity being based on different fire-specific measured values.
Energy storage device in the form of a high-voltage battery comprising a housing having one or several storage cells or storage cell modules accommodated therein and one or several cooling means lines through which runs a cooling means flowing via a cooling means circuit, wherein the one or the several cooling means lines are integrated in one or several walls of the housing and on the housing side run in an uninterrupted manner from an inlet connection situated outside the housing to an outlet connection also situated outside the housing, wherein the one or the several cooling means lines are formed by pipes which are completely injection-moulded or cast into the one or the several walls.
Refining method for polyether polyol, comprising the following steps: neutralizing or diluting crude polyether polyol to obtain a mixed solution containing the crude polyether polyol; flowing the mixed solution through a hydrophilic medium to aggregate same into a first density phase liquid and a second density phase liquid, the first density phase liquid being an aqueous solution containing alkaline metal ions and/or alkaline earth metal ions, and the second density phase liquid being polyether polyol; and allowing the first density phase liquid to settle and separating same from the second density phase liquid to obtain refined polyether polyol, wherein the hydrophilic medium comprises at least one group selected from a hydroxyl group, an amino group and a carboxyl group. neutralizing or diluting crude polyether polyol to obtain a mixed solution containing the crude polyether polyol; flowing the mixed solution through a hydrophilic medium to aggregate same into a first density phase liquid and a second density phase liquid, the first density phase liquid being an aqueous solution containing alkaline metal ions and/or alkaline earth metal ions, and the second density phase liquid being polyether polyol; and allowing the first density phase liquid to settle and separating same from the second density phase liquid to obtain refined polyether polyol,
Fan assembly comprising a fan housing in which a motor is arranged and is connected to a fan wheel by means of a shaft, a cover disc being placed on the side of the fan wheel facing away from the motor, the fan wheel being covered by a fan cover which can be joined to the fan housing, the fan cover comprising a suction opening on which a circumferential bead is arranged which is open towards the fan wheel, characterised in that a circumferential sealing ring, consisting of PU or PU R foam, is arranged in the bead on the suction opening and sealingly surrounds a radially inner portion of the cover disc, and in that portions of the sealing ring have different heights.
A method for producing pellets formed from a resin composition including a crystalline macromolecule and inorganic fine powder or organic fine powder in a mass ratio of 50:50 to 20:80, the method comprising the step of: kneading the crystalline macromolecule and the inorganic fine powder or the organic fine powder at a temperature at least 45°C higher than a melting point of the crystalline macromolecule so that the microcrystalline size of the crystalline macromolecule is 19 nm (190 Å) or smaller, the kneading being carried out until the microcrystalline size of the crystalline macromolecule becomes 190 Å or smaller, wherein the crystalline macromolecule includes a polypropylene resin, whereas the microcrystalline size of the crystalline macromolecule is determined as described in the description. kneading the crystalline macromolecule and the inorganic fine powder or the organic fine powder at a temperature at least 45°C higher than a melting point of the crystalline macromolecule so that the microcrystalline size of the crystalline macromolecule is 19 nm (190 Å) or smaller, the kneading being carried out until the microcrystalline size of the crystalline macromolecule becomes 190 Å or smaller, wherein the crystalline macromolecule includes a polypropylene resin, whereas the microcrystalline size of the crystalline macromolecule is determined as described in the description.
Assembly of modular electrical units intended to be mounted on a mounting rail comprising, for at least one of the units, a locking device, said device comprising at least one catch comprising a mobile part able to slide with respect to the casing of the unit, said part comprising a first end portion able to collaborate with one, referred to as the first, of the longitudinal edges of the rail and a second end portion, referred to as the manipulation end portion, able to be manipulated by a user so as to move said catch between a first position in which said catch fixes the unit to the rail in collaboration with a fixed end stop belonging to the casing collaborating with the opposite longitudinal edge to the previous one, and a second position in which said first end portion of the catch no longer collaborates with the edge of the rail so as to allow the unit to be extracted from said rail, this locking device comprising an extension device extending the manipulation portion of said at least one catch (7, 8, 9, 32, 33), said extension device comprising a first end portion able to be fixed to the manipulation portion of said at least one catch, and a second end portion comprising manipulation means able to be actuated by the user so as to operate the catch or catches, characterized in that the unit is a three-pole electrical protection unit comprising three switching modules (1, 2, 3) or a four-pole electrical protection unit comprising four switching modules (22 to 25), said modules being contiguous via their lateral faces and forming a single-piece assembly, and in that the locking device comprises two catches (8, 9, 32, 33) associated respectively with the two switching modules (1, 3) situated at the end of said assembly in the case of the three-pole unit or associated respectively with two of the switching modules (23, 25) which are separated by a switching module that does not have a catch in the case of the four-pole unit, said extension device comprising two branches (12a, 12b), referred to as first fixing branches, comprising catching means for catching respectively on the two manipulation portions of the aforementioned two catches (8, 9, 32, 33) and a branch, referred to as second branch, situated between the two first branches and comprising guide means (14, 15) able to collaborate in sliding with the casing of the module situated between the aforementioned two modules associated with a catch, said so-called first and second branches forming portions of the one same part of the extension device.
Switching device with at least one contact point and an arc blow device associated with said contact point, where said arc blow device comprises at least one blow magnet (2.1, 2.2) for generating a magnetic blow field, where said blow field is of such nature that a switch arc (3.1, 3.2) developing when said contact point opens is blown out from said contact point, wherein said blow field comprises a first magnetic field area and a second magnetic field area arranged adjacent to said first magnetic field area, where magnetic field lines of said first magnetic field area are oriented in opposite direction to magnetic field lines of said second magnetic field area, and where said blow field further comprises a transition area which connects said first magnetic field area and said second magnetic field area with each other, where the orientation of said magnetic field lines in said transition area, each starting out from said first magnetic field area and said second magnetic field area, aligns toward said contact point so that said switch arc (3.1, 3.2) within said transition area is in dependence of the direction of the current, starting out from said contact point, directed either into said first magnetic field area or into said second magnetic field area and there in both cases blown in the same direction away from said contact point, wherein said arc blow device comprises a first lateral pole plate (6.1), a second lateral pole plate (6.2) and an interposed center pole plate (6.3), where said first magnetic field area is given between said first lateral pole plate (6.1) and said center pole plate (6.3), and where said second magnetic field area is given between said second lateral pole plate (6.2) and said center pole plate (6.3), wherein said center pole plate (6.3) at one first end facing said contact point is shorter than said two lateral pole plates (6.1, 6.2), wherein said switching device further comprises an arc extinguishing device (5.1, 5.2, 5.3) which is arranged such that said switch arc (3.1, 3.2) is blown through said arc blow device into said arc extinguishing device (5.1, 5.2, 5.3), irrespective of the direction of the current, characterized in that said center pole plate (6.3) is at a second end disposed opposite to its first end also shorter than said two lateral pole plates (6.1, 6.2), such that the switch arc (3.1, 3.2) is prior to entering into the arc extinguishing device (5.1, 5.2, 5.3) again directed toward the center between said first lateral pole plate (6.1) and said second lateral pole plate (6.2).
A method for monitoring a filling level of a feeding device, having the following steps: - providing a feeding device having at least one storage container which can be driven in rotation about an axis, - operating the feeding device by motorized driving of the storage container about the axis, - filling the storage container with material to be conveyed, characterized in that - a drive torque which is necessary for driving the storage container about the axis or which corresponds thereto is measured and observed, and - a conclusion as regards a filling level of the material in the storage container is drawn from the drive torque for the storage container. - providing a feeding device having at least one storage container which can be driven in rotation about an axis, - operating the feeding device by motorized driving of the storage container about the axis, - filling the storage container with material to be conveyed, - a drive torque which is necessary for driving the storage container about the axis or which corresponds thereto is measured and observed, and - a conclusion as regards a filling level of the material in the storage container is drawn from the drive torque for the storage container.
A multipurpose vehicle comprising: an engine; a traveling transmission which is provided behind the engine and outputs power to traveling wheels (1, 2); a stepless speed changer which is provided at one of lateral sides of a vehicle body with respect to the engine and the traveling transmission, and configured to receive power of the engine, to speed-change the power and to output it to the traveling transmission; and an engine output shaft projected from the engine toward the stepless speed changer along a lateral direction of the vehicle body; characterized in that it comprises a speed changer input shaft projected from the stepless speed changer toward the engine along the lateral direction of the vehicle body; a first gear transmission mechanism provided between and across the engine output shaft and the speed changer input shaft for transmitting power of the engine output shaft to the speed changer input shaft such that the speed changer input shaft is operably connected to the engine output shaft with the first gear transmission mechanism; and a power takeoff section provided on a side of the stepless speed changer with respect to the engine and forwardly of the stepless speed changer, the PTO section being operably connected to the engine output shaft via a second gear transmission mechanism. an engine; a traveling transmission which is provided behind the engine and outputs power to traveling wheels (1, 2); a stepless speed changer which is provided at one of lateral sides of a vehicle body with respect to the engine and the traveling transmission, and configured to receive power of the engine, to speed-change the power and to output it to the traveling transmission; and an engine output shaft projected from the engine toward the stepless speed changer along a lateral direction of the vehicle body; characterized in that it comprises a speed changer input shaft projected from the stepless speed changer toward the engine along the lateral direction of the vehicle body; a first gear transmission mechanism provided between and across the engine output shaft and the speed changer input shaft for transmitting power of the engine output shaft to the speed changer input shaft such that the speed changer input shaft is operably connected to the engine output shaft with the first gear transmission mechanism; and a power takeoff section provided on a side of the stepless speed changer with respect to the engine and forwardly of the stepless speed changer, the PTO section being operably connected to the engine output shaft via a second gear transmission mechanism.
A node interconnection apparatus, comprising: a computing node, comprising a first processor and a first memory; and a resource control node, comprising a second processor, a second memory, a device interconnection interface connected to the computing node, and a network interface for connecting a network storage device; wherein power to the computing node and the resource control node is supplied separately such that a power-on operation or a power-off operation is separately performed on the computing node without affecting a normal working state in which the resource control node remains; the resource control node is configured to access a virtual disk of N virtual disks of a shared storage resource pool, acquire a first operating system mirror from the virtual disk, and provide the first operating system mirror to the first memory for the computing node to start a first operating system of the computing mode; wherein the resource control node further comprises a storage interface for connecting a local storage device; the resource control node is configured to form the shared storage resource pool by using storage resources acquired from the local storage device and the network storage device and form the N virtual disks from the shared storage resource pool. a computing node, comprising a first processor and a first memory; and a resource control node, comprising a second processor, a second memory, a device interconnection interface connected to the computing node, and a network interface for connecting a network storage device; wherein power to the computing node and the resource control node is supplied separately such that a power-on operation or a power-off operation is separately performed on the computing node without affecting a normal working state in which the resource control node remains; the resource control node is configured to access a virtual disk of N virtual disks of a shared storage resource pool, acquire a first operating system mirror from the virtual disk, and provide the first operating system mirror to the first memory for the computing node to start a first operating system of the computing mode; wherein the resource control node further comprises a storage interface for connecting a local storage device; the resource control node is configured to form the shared storage resource pool by using storage resources acquired from the local storage device and the network storage device and form the N virtual disks from the shared storage resource pool.
A vehicle control device for controlling a vehicle drive apparatus, which includes an input member drive-coupled to a driving force source, an output member drive-coupled to a wheel, and a transmission having a plurality of engagement elements (B1, C1) and a plurality of shift speeds in a switchable manner, shifting a rotation speed of the input member with speed ratios of the shift speeds and transmitting the shifted speed to the output member, wherein the vehicle control device controls switching of shift speeds, which is performed at least via a torque phase in the transmission, by controlling engagement and release of the plurality of engagement elements (B1, C1), the vehicle control device comprising: release control means for feedback controlling supplied oil pressure to a release side element (Er) which is an engagement element on a side to be released so that a differential rotation speed (ΔN) becomes substantially constant, the differential rotation speed (ΔN) being a difference of rotation speed between an actual rotation speed of the input member and a predetermined target rotation speed (Nb); engagement control means for increasing supplied oil pressure to an engagement side element (Ee) as an engagement element on a side to be engaged in a state that the differential rotation speed (ΔN) is substantially constant; and phase determining means for determining that the torque phase (Pt) has started when a condition that a phenomenon accompanying a change of the differential rotation speed (ΔN) due to increase of the supplied oil pressure to the engagement side element (Ee) is detected is met, characterized in that the phase determining means further determines that the torque phase (Pt) has ended when the following condition is met: change of a release side hydraulic instruction value (Cr), which is an instruction value of the supplied oil pressure to the release side element (Er), to be equal to or smaller than a predetermined release determining value corresponding to oil pressure at which transfer torque capacity in the release side element (Er) becomes zero is detected. release control means for feedback controlling supplied oil pressure to a release side element (Er) which is an engagement element on a side to be released so that a differential rotation speed (ΔN) becomes substantially constant, the differential rotation speed (ΔN) being a difference of rotation speed between an actual rotation speed of the input member and a predetermined target rotation speed (Nb); engagement control means for increasing supplied oil pressure to an engagement side element (Ee) as an engagement element on a side to be engaged in a state that the differential rotation speed (ΔN) is substantially constant; and phase determining means for determining that the torque phase (Pt) has started when a condition that a phenomenon accompanying a change of the differential rotation speed (ΔN) due to increase of the supplied oil pressure to the engagement side element (Ee) is detected is met,