mhurhangee/ep-ind-claims huggingface dataset:
A method for removing contaminants from a waste gas stream in a sulfuric acid production process comprising the steps: a) directing said waste gas stream, wherein said waste gas stream contains sulfur dioxide and nitrogen oxides, to an initial stage of a particulate scrubber; b) contacting said waste gas stream with ozone for nitrogen oxides oxidation by adding ozone into a droplet disengagement zone after the initial stage of said particulate scrubber at a temperature of below 100°C; c) subsequently scrubbing oxidized NO X and the remainder of particulate matter in a final stage of said particulate scrubber; d) directing said waste gas stream to a gas dryer; and e) recovering said waste gas stream. a) directing said waste gas stream, wherein said waste gas stream contains sulfur dioxide and nitrogen oxides, to an initial stage of a particulate scrubber; b) contacting said waste gas stream with ozone for nitrogen oxides oxidation by adding ozone into a droplet disengagement zone after the initial stage of said particulate scrubber at a temperature of below 100°C; c) subsequently scrubbing oxidized NO X and the remainder of particulate matter in a final stage of said particulate scrubber; d) directing said waste gas stream to a gas dryer; and e) recovering said waste gas stream.
A method of oxidizing organic fats within a diesel internal combustion engine to generate power, comprising the steps of: providing a diesel internal combustion engine having a combustion chamber, a fuel intake to the combustion chamber, and an oxidizer intake to the combustion chamber; providing an oxidizer to be used within the diesel internal combustion engine; applying a first electrical charge to the oxidizer; introducing the charged oxidizer into the combustion chamber via the oxidizer intake; providing organic fat to be oxidized within the diesel internal combustion engine, wherein the organic fat is a neat organic fat; applying a second electrical charge to the organic fat, wherein the first electrical charge has a substantially opposite polarity to the second electrical charge; pre-heating the neat organic fat to at least 40 degrees centigrade prior to introduction into the combustion chamber; introducing the charged organic fat into the combustion chamber via the fuel intake; and oxidizing the charged organic fat in the combustion chamber to generate power, wherein the oxidizer comprises hydrogen peroxide and air, the hydrogen peroxide provided at a concentration of 35%, diluted with water, and the hydrogen peroxide is vaporised and added to the air at a proportion of 1%, by mass. providing a diesel internal combustion engine having a combustion chamber, a fuel intake to the combustion chamber, and an oxidizer intake to the combustion chamber; providing an oxidizer to be used within the diesel internal combustion engine; applying a first electrical charge to the oxidizer; introducing the charged oxidizer into the combustion chamber via the oxidizer intake; providing organic fat to be oxidized within the diesel internal combustion engine, wherein the organic fat is a neat organic fat; applying a second electrical charge to the organic fat, wherein the first electrical charge has a substantially opposite polarity to the second electrical charge; pre-heating the neat organic fat to at least 40 degrees centigrade prior to introduction into the combustion chamber; introducing the charged organic fat into the combustion chamber via the fuel intake; and oxidizing the charged organic fat in the combustion chamber to generate power, wherein the oxidizer comprises hydrogen peroxide and air, the hydrogen peroxide provided at a concentration of 35%, diluted with water, and the hydrogen peroxide is vaporised and added to the air at a proportion of 1%, by mass.
A brake auxiliary device, comprising a link unit comprising two movable members, the two movable members each being a plate and each having a connection hole at a central portion thereof and two through holes, characterized in that: the brake auxiliary device further comprises a casing comprising a bottom board and a cover, the bottom board having a connection rod at a central portion thereof and a plurality of fixing holes at a circumferential portion thereof, the cover having a pair of connection portions extending from two sides thereof to connect the bottom board; and the link unit is disposed between the bottom board and the cover, the link unit further comprises a sleeve, the two movable members each are a curved plate, the connection hole is for insertion of the connection rod and the two movable members each have upper and lower protrusions at upper and lower ends thereof, the upper protrusion having a first through hole and a second through hole, the lower protrusion having a third through hole and a fourth through hole, the sleeve being fitted on the connection rod and located between the two movable members. the brake auxiliary device further comprises a casing comprising a bottom board and a cover, the bottom board having a connection rod at a central portion thereof and a plurality of fixing holes at a circumferential portion thereof, the cover having a pair of connection portions extending from two sides thereof to connect the bottom board; and the link unit is disposed between the bottom board and the cover, the link unit further comprises a sleeve, the two movable members each are a curved plate, the connection hole is for insertion of the connection rod and the two movable members each have upper and lower protrusions at upper and lower ends thereof, the upper protrusion having a first through hole and a second through hole, the lower protrusion having a third through hole and a fourth through hole, the sleeve being fitted on the connection rod and located between the two movable members.
A method of inhibiting pipe corrosion, the method comprising the steps of: providing a composite, pre-jacketed insulation product manufactured in a factory by: (a) forming a porous insulation into an elongated, arcuate-shape, (b) applying a copolymer-alkaline metal silicate or a copolymer-alkaline earth metal silicate solution layer to at least the exterior surface of the insulation and at least partially within the pores of the insulation, (c) permitting the copolymer-alkaline metal or alkaline earth metal silicate solution layer to set to a threshold amount, and (d) adhering an outer protective jacketing to the copolymer-alkaline metal or copolymer-alkaline earth metal silicate solution layer by means of a pressure sensitive adhesive or a contact adhesive, after the permitting step is accomplished, to form the composite, pre-jacketed insulation product, installing the composite pre-jacketed insulation product onto the exterior surface of a pipe or piece of equipment, and sealing any exposed edges or seams between adjacent installed composite products or between overlapping sheets of said protective jacketing. providing a composite, pre-jacketed insulation product manufactured in a factory by: (a) forming a porous insulation into an elongated, arcuate-shape, (b) applying a copolymer-alkaline metal silicate or a copolymer-alkaline earth metal silicate solution layer to at least the exterior surface of the insulation and at least partially within the pores of the insulation, (c) permitting the copolymer-alkaline metal or alkaline earth metal silicate solution layer to set to a threshold amount, and (d) adhering an outer protective jacketing to the copolymer-alkaline metal or copolymer-alkaline (a) forming a porous insulation into an elongated, arcuate-shape, (b) applying a copolymer-alkaline metal silicate or a copolymer-alkaline earth metal silicate solution layer to at least the exterior surface of the insulation and at least partially within the pores of the insulation, (c) permitting the copolymer-alkaline metal or alkaline earth metal silicate solution layer to set to a threshold amount, and (d) adhering an outer protective jacketing to the copolymer-alkaline metal or copolymer-alkaline earth metal silicate solution layer by means of a pressure sensitive adhesive or a contact adhesive, after the permitting step is accomplished, to form the composite, pre-jacketed insulation product, installing the composite pre-jacketed insulation product onto the exterior surface of a pipe or piece of equipment, and sealing any exposed edges or seams between adjacent installed composite products or between overlapping sheets of said protective jacketing.
A vehicle for passenger transport, preferably a bus, comprising a self-supporting body, assembled from a plurality of body modules that can be used for different vehicle variants, comprising: - a front module, comprising a recess for receiving a windscreen; - a rear module; and - several connecting modules arranged in a row in a longitudinal direction of the vehicle, via which the front module is connected to the rear module; characterized in that each of the body modules is configured as a lattice frame construction and/or comprises a self-supporting, cage-like lattice frame structure. - a front module, comprising a recess for receiving a windscreen; - a rear module; and - several connecting modules arranged in a row in a longitudinal direction of the vehicle, via which the front module is connected to the rear module;
Switchable window (1; 11) for use in an aircraft, helicopter, or space vehicle, comprising an outer pane construction (2; 12) subjected to sunlight, and an inner pane construction (3; 13) having an electrically switchable film (3.3; 13.3) for changing a color or transmittance of the switchable window (1; 11), the outer pane construction (2; 12) covering at least an irradiated part of the inner pane construction (3; 13) wherein the outer pane construction (2; 12) and the inner pane construction (3; 13) are arranged with a distance or spacing (4; 14) there between, characterized in that the outer pane construction (2; 12) absorbs IR radiation of the sunlight and it absorbs or reflects UV radiation of the sunlight, wherein the outer pane construction comprises at least one transparent pane (2.1, 2.2; 12.1) made of polymethylmethacrylate (PMMA), polycarbonate, or polyethylene terephthalate comprising an IR absorber including nanoparticles of hexaboride and an UV absorber including a chromophore.
A solar cell comprising: a substrate containing impurities of a first conductive type; an emitter region positioned at a first surface of the substrate, the emitter region containing impurities of a second conductive type opposite the first conductive type and including a lightly doped emitter region having a first sheet resistance and a heavily doped emitter region having a second sheet resistance less than the first sheet resistance; a first dielectric layer positioned on the emitter region; a first electrode including a first finger electrode which is positioned on the heavily doped emitter region in a first direction, and a first bus bar electrode which is positioned on the lightly doped emitter region in a second direction; and a second electrode (150; 150') which is positioned on a second surface of the substrate and is connected to the substrate, wherein the first finger electrode includes a seed layer contacting the heavily doped emitter region and a conductive metal layer formed on the seed layer, and the first bus bar electrode includes electrically conductive metal particles and a thermosetting resin, and wherein the first dielectric layer is positioned between the first bus bar electrode and the lightly doped emitter region. a substrate containing impurities of a first conductive type; an emitter region positioned at a first surface of the substrate, the emitter region containing impurities of a second conductive type opposite the first conductive type and including a lightly doped emitter region having a first sheet resistance and a heavily doped emitter region having a second sheet resistance less than the first sheet resistance; a first dielectric layer positioned on the emitter region; a first electrode including a first finger electrode which is positioned on the heavily doped emitter region in a first direction, and a first bus bar electrode which is positioned on the lightly doped emitter region in a second direction; and a second electrode (150; 150') which is positioned on a second surface of the substrate and is connected to the substrate,
A method for preparing an LED display module, comprising following steps: step S10: machining a first enclosure around a front surface of a lamp panel, so as to form an accommodating pool on the front surface of the lamp panel; step S30: filling the accommodating pool with glue, and performing a vacuum defoaming treatment on the lamp panel filled with the glue, so as to obtain a defoamed lamp panel; step S40: performing a first curing treatment on the defoamed lamp panel, so as to obtain a lamp panel that has been subjected to the first curing treatment; step S50: removing the first enclosure, and placing the lamp panel with the first enclosure removed in an accommodating appliance, enabling the front surface of the lamp panel with the first enclosure removed to face a bottom of the accommodating appliance, immersing lamp beads on the lamp panel with the first enclosure removed into defoaming glue in the accommodating appliance, wherein the bottom of the accommodating appliance is a plane portion; step S60: applying an acting force, which faces the bottom of the accommodating appliance, to a back surface of the lamp panel with the first enclosure removed, and immersing the front surface of the lamp panel into the defoaming glue to obtain an immersed lamp panel; and step S70: performing a second curing treatment on the immersed lamp panel, so as to obtain a lamp panel that has been subjected to the second curing treatment, and then the LED display module is obtained. step S10: machining a first enclosure around a front surface of a lamp panel, so as to form an accommodating pool on the front surface of the lamp panel; step S30: filling the accommodating pool with glue, and performing a vacuum defoaming treatment on the lamp panel filled with the glue, so as to obtain a defoamed lamp panel; step S40: performing a first curing treatment on the defoamed lamp panel, so as to obtain a lamp panel that has been subjected to the first curing treatment; step S50: removing the first enclosure, and placing the lamp panel with the first enclosure removed in an accommodating appliance, enabling the front surface of the lamp panel with the first enclosure removed to face a bottom of the accommodating appliance, immersing lamp beads on the lamp panel with the first enclosure removed into defoaming glue in the accommodating appliance, wherein the bottom of the accommodating appliance is a plane portion; step S60: applying an acting force, which faces the bottom of the accommodating appliance, to a back surface of the lamp panel with the first enclosure removed, and immersing the front surface of the lamp panel into the defoaming glue to obtain an immersed lamp panel; and step S70: performing a second curing treatment on the immersed lamp panel, so as to obtain a lamp panel that has been subjected to the second curing treatment, and then the LED display module is obtained.
A control device (100, 100#) that controls a control target comprising a servo motor (300, 300X, 300Y) by supplying a target value to a servo driver (200, 200X, 200Y, 200#X, 200#Y) which is configured to drive the servo motor (300, 300X, 300Y) and execute a control arithmetic operation in which a manipulation amount for driving the servo motor (300, 300X, 300Y) is determined on the basis of a control parameter determined in accordance with the control target, the control device (100, 100#) comprising: an interface (122, 124), exchanging data with the servo driver (200, 200X, 200Y, 200#X, 200#Y); a creation unit (150, 150X, 150Y), acquiring the control parameter of the servo driver (200, 200X, 200Y, 200#X, 200#Y) and creating an internal model representing a motion characteristic of the control target on the basis of the acquired control parameter of the servo driver; and a target value calculation unit (170, 170X, 170Y), calculating a corrected target value to be supplied to the servo driver (200, 200X, 200Y, 200#X, 200#Y) on the basis of a target value corresponding to a target track and a feedback corresponding to an actual position value from the control target by applying the target value and the feedback value to the created internal model. an interface (122, 124), exchanging data with the servo driver (200, 200X, 200Y, 200#X, 200#Y); a creation unit (150, 150X, 150Y), acquiring the control parameter of the servo driver (200, 200X, 200Y, 200#X, 200#Y) and creating an internal model representing a motion characteristic of the control target on the basis of the acquired control parameter of the servo driver; and a target value calculation unit (170, 170X, 170Y), calculating a corrected target value to be supplied to the servo driver (200, 200X, 200Y, 200#X, 200#Y) on the basis of a target value corresponding to a target track and a feedback corresponding to an actual position value from the control target by applying the target value and the feedback value to the created internal model.
Device for assisting the steering of a vehicle combination with a tractor vehicle and an implement which is pivotably hitched to the tractor vehicle at a rear-side coupling point, wherein the implement has wheels (38, 40, 42, 44) which are arranged on opposite sides and to which a drive torque (M r1, M r2, M l1, M l2) can be applied by actuating associated individual wheel drives (46, 48, 50, 52) independently of one another, characterized in that an electronic control unit impresses a yawing moment (Γ) on the implement by asymmetric actuation of the individual wheel drives (46, 48, 50, 52), in such a way that a lateral force (F lat) which is applied to the tractor vehicle via the rear-side coupling point is built up with the effect of bringing about a predefined steering behaviour of the vehicle combination.
A press machine configured to press a workpiece, the press machine comprising: a control device being configured to operates the press machine, the control device including a processor, a storage unit, and a display, the processor being configured to calculate image information which represents an operating state of the press machine, the display being configured to display a state display image which extends in a band shape and indicates the operating state of the press machine during a predetermined period of time up to date, in accordance with the image information, the display being configured to display time series variation in the operating state during the predetermined period of time by variation in a color of the state display image in the band shape in an extending direction, the control device being characterized in that the processor includes an evaluation value calculation unit configured to calculate two or more types of evaluation values for evaluating the operating state per unit time, and a color combination unit configured to mix two or more colors, each of the two or more colors corresponds to one of the two or more types of evaluation values, each of the two or more colors is set to a gradation value corresponding to a magnitude of the corresponding one of the two or more types of evaluation values, and the state display image displays colors mixed by the color combination unit in a portion indicating the operation state of a current time at intervals of the unit time. a control device being configured to operates the press machine, the control device including a processor, a storage unit, and a display, the processor being configured to calculate image information which represents an operating state of the press machine, the display being configured to display a state display image which extends in a band shape and indicates the operating state of the press machine during a predetermined period of time up to date, in accordance with the image information, the display being configured to display time series variation in the operating state during the predetermined period of time by variation in a color of the state display image in the band shape in an extending direction, the control device being characterized in that the processor includes an evaluation value calculation unit configured to calculate two or more types of evaluation values for evaluating the operating state per unit time, and a color combination unit configured to mix two or more colors, each of the two or more colors corresponds to one of the two or more types of evaluation values, each of the two or more colors is set to a gradation value corresponding to a magnitude of the corresponding one of the two or more types of evaluation values, and the state display image displays colors mixed by the color combination unit in a portion indicating the operation state of a current time at intervals of the unit time.
Motor starter for operating an electric motor, which is connected to a multiphase power supply, wherein a semiconductor switch and a electromechanical switch parallel thereto are arranged in current-carrying phases (14, 16, 18) in each case and the electromechanical switch has a movable switching piece, wherein the movable switching piece is embodied as tiltable in order to reduce a current gradient present in the semiconductor switch, wherein the current gradient should be understood as a change to the present current intensity (76, 77) based on the time, wherein the electromechanical switch is embodied such that, on opening, there is an actuation period between a detachment of a first end of the switching piece from an assigned stationary contact and a detachment of a second end of the switching piece from an assigned stationary contact, characterised in that the motor starter comprises a control unit (40, 42), wherein the semiconductor switch and the control unit (40, 42) are embodied to start up and brake the electric motor in a targeted way via a phase-fired controller.