mhurhangee/ep-ind-claims huggingface dataset:
A refractory block for a lining of an inside surface of a steel shell of a cylindrical furnace, the refractory block comprising: a hot-face end surface which has a hexagonal shape; a cold-face end surface which has a hexagonal shape larger than the hot-face end surface; and a block arrangement jig having a metallic plate and a metallic grip that extends from a surface of the metallic plate, the block arrangement jig being fixed with an adhesive and a bolt. a hot-face end surface which has a hexagonal shape; a cold-face end surface which has a hexagonal shape larger than the hot-face end surface; and a block arrangement jig having a metallic plate and a metallic grip that extends from a surface of the metallic plate, the block arrangement jig being fixed with an adhesive and a bolt.
A heat exchange system for providing cooling by circulating a coolant, the heat exchange system comprising: a supply circuit for circulating the coolant comprising: a coolant supply heat exchanger for rejecting heat from the coolant to provide a supply of chilled coolant; a supply pump for circulating the coolant in the coolant supply circuit; a load circuit for circulating the coolant, comprising: a cooling load heat exchanger configured to transfer heat to the coolant; a load pump for circulating the coolant in the load circuit; a mixing device which is configured to form part of each of the supply circuit and the load circuit; and characterized by a valve arrangement configured to control a mix of (i) coolant from the supply circuit and (ii) recirculated coolant from the load circuit, in a coolant flow provided to the cooling load heat exchanger. a supply circuit for circulating the coolant comprising: a coolant supply heat exchanger for rejecting heat from the coolant to provide a supply of chilled coolant; a supply pump for circulating the coolant in the coolant supply circuit; a coolant supply heat exchanger for rejecting heat from the coolant to provide a supply of chilled coolant; a supply pump for circulating the coolant in the coolant supply circuit; a load circuit for circulating the coolant, comprising: a cooling load heat exchanger configured to transfer heat to the coolant; a load pump for circulating the coolant in the load circuit; a cooling load heat exchanger configured to transfer heat to the coolant; a load pump for circulating the coolant in the load circuit; a mixing device which is configured to form part of each of the supply circuit and the load circuit; and characterized by a valve arrangement configured to control a mix of (i) coolant from the supply circuit and (ii) recirculated coolant from the load circuit, in a coolant flow provided to the cooling load heat exchanger.
A tire building drum comprising: a rotatable drum having a center section (20, 22a, 22b) and a first and second shoulder section, said center section (20, 22a, 22b) being radially expandable, wherein said center section (20, 22a, 22b) has no center sleeve, wherein said center section (20, 22a, 22b) has a first and second end, wherein the first and second end each have a shoulder, and wherein the center section (20, 22a, 22b) further comprises a first and second shoulder seal (60a, 60b) which extends over the shoulder of the center section (20, 22a, 22b).
An electrical gas-discharge lamp comprising - an inner bulb and an outer bulb, the inner bulb being arranged within the outer bulb, - said inner bulb being filled with a discharge gas and comprising a first electrode and an opposing second electrode having a distance from the first electrode which allows ignition of a gas discharge in the inner bulb by applying an ignition voltage between the electrodes (3, 4), - said first electrode being electrically contacted by means of a first electrically conductive lead, which extends in a first electrically insulating feedthrough on a first side of the inner bulb through the outer bulb, - said second electrode being electrically contacted by means of a second electrically conductive lead extending in a second electrically insulating feedthrough on a second side of the inner bulb through the outer bulb, and - said outer bulb being filled with a second gas, at least one through hole is formed in the first feedthrough to the first electrically conductive lead and an electrically conductive member extends within a space formed between the inner and the outer bulb at least from a position close to the through hole to a distance from the second electrode which is smaller than the distance between the two electrodes (3, 4), said position of the electrically conductive member close to the through hole being such that, prior to ignition of the lamp, the electrically conductive member is not electrically connected to said first electrically conductive lead, and such that an electrically conducting path forms through the through hole between the electrically conductive member and the first electrically conductive lead by ionization of the second gas when applying said ignition voltage between the electrodes (3, 4). - an inner bulb and an outer bulb, the inner bulb being arranged within the outer bulb, - said inner bulb being filled with a discharge gas and comprising a first electrode and an opposing second electrode having a distance from the first electrode which allows ignition of a gas discharge in the inner bulb by applying an ignition voltage between the electrodes (3, 4), - said first electrode being electrically contacted by means of a first electrically conductive lead, which extends in a first electrically insulating feedthrough on a first side of the inner bulb through the outer bulb, - said second electrode being electrically contacted by means of a second electrically conductive lead extending in a second electrically insulating feedthrough on a second side of the inner bulb through the outer bulb, and - said outer bulb being filled with a second gas,
Bonemill, which bonemill has a processing channel, equipped with a transport element for transportation of at least one millable material, which transport element is arranged to move the material toward a milling unit arranged at a substantially perpendicular angle in relation to the transport direction of the transport element, wherein the milling unit features milling inserts arranged in recesses substantially radially toward the milling body's rotational shaft and arranged to protrude out from its substantially cylindrical surface, and comprises at least two substantially parallel spindles, which spindles feature milling bodies arranged in pairs and wherein the processing channel is arranged to form a screw housing surrounding the millable material, wherein the processing channel features a milling inlet oriented toward the milling unit, characterised in that the spindles include replaceable milling inserts substantially evenly distributed around the periphery of the respective milling body, so that the milling inserts are separated from each other with tracks and intermediate ridges formed in the cylindrical surface of the milling body in its rotational direction, which ridges form the milling body's outermost periphery and at the same time constitute a resistance holding the material at a substantially constant distance in relation to the milling inserts, wherein the milling inlet is oriented toward the milling unit with an extension in the rotational plane of the milling bodies which is shorter than the total extension of the milling bodies in their rotational plane, and the milling inlet has an extension in the longitudinal direction of the spindle which is shorter than the processing width of the milling unit.
A stationing unit for parking a motorcycle, moped or bicycle comprising: - a fixed structure designed to be anchored to the ground in an area provided for parking; - a locker rigidly connected to the fixed structure and having a door for access to a containing space; - a structure for anchorage of a wheel, or some other part, of the cycle, connected to said fixed structure; and - anchorage means for securing the wheel, or some other part, of the cycle to the aforesaid anchorage structure, and for blocking the door of the locker in its closed position, - wherein said anchorage means comprise an anchorage member, for example in the form of a cable or chain, which has the purpose of securing a wheel or some other part of the cycle to said anchorage structure and terminates with a portion that can be secured to the locker in a condition in which the door is blocked in its closed position so that said anchorage member performs both the function of anchorage of the cycle and the function of blocking the locker in the closed condition, characterized in that in order to encourage a user to close the door before leaving the stationing unit, said locker is provided with a coin-operated lock device for withholding a key connected to the door, in such a way as to enable release of the key and opening of the door only in the presence of a coin or token inside the coin-operated lock, so that, after use, before leaving said stationing unit, the user must close the door again and insert the key in the coin-operated lock device in order to recover said coin or token. - a fixed structure designed to be anchored to the ground in an area provided for parking; - a locker rigidly connected to the fixed structure and having a door for access to a containing space; - a structure for anchorage of a wheel, or some other part, of the cycle, connected to said fixed structure; and - anchorage means for securing the wheel, or some other part, of the cycle to the aforesaid anchorage structure, and for blocking the door of the locker in its closed position, - wherein said anchorage means comprise an anchorage member, for example in the form of a cable or chain, which has the purpose of securing a wheel or some other part of the cycle to said anchorage structure and terminates with a portion that can be secured to the locker in a condition in which the door is blocked in its closed position so that said anchorage member performs both the function of anchorage of the cycle and the function of blocking the locker in the closed condition,
Improved resistance fin for a heat exchange battery, at least one front entry edge of said fin having a rounded shape and being formed by a double fold, characterized in that said double fold encloses the cut edge of the fin, in such a way as to close it and isolate it from the external environment and to prevent it from coming into contact with aggressive substances capable of damaging it.
A multilayer structure intended to form a tandem photovoltaic cell, the multilayer structure comprising: - a lower silicon-based sub-cell, - an upper perovskite-based sub-cell, - a tunnel junction including doped silicon disposed at the interface of the lower sub-cell and of the upper sub-cell, the upper sub-cell comprising a lower charge transport layer composed of a monolayer of self-assembled molecules, characterized in that the monolayer of self-assembled molecules is grafted with the doped silicon of the tunnel junction by Si-C covalent bonds. - a lower silicon-based sub-cell, - an upper perovskite-based sub-cell, - a tunnel junction including doped silicon disposed at the interface of the lower sub-cell and of the upper sub-cell,
A memory device, comprising: a plurality of word line layers (WLD4-WLD2) which are vertically spaced apart from one another by dielectric layers (DL3-DL16) in a stack (610, 616); and a set of NAND strings (700n-703n, 710n-713n, 720n-723n, 730n-733n) extending through the plurality of word line layers, the set of NAND strings are arranged between a first region and a second region which extend vertically in the stack, wherein the first vertically extending region and the second vertically extending region are either an isolation region (804, 806) or a local interconnect (617, 800, 801, 805), wherein the set of NAND strings comprises NAND strings in a first edge region of the stack adjacent to the first vertically extending region, a second edge region of the stack adjacent to the second vertically extending region, and an interior region (1021, 1027) between the first and second edge regions, and wherein each NAND string of the set of NAND strings comprises in the first and second edge regions a channel which is doped, and in the interior region between the first and second edge regions a channel which is undoped, characterised in that: each NAND string in the set of NAND strings comprises a blocking oxide layer, wherein the blocking oxide layers of NAND strings in the first and second edge regions are thinner than the blocking oxide layers of NAND strings in the interior region. a plurality of word line layers (WLD4-WLD2) which are vertically spaced apart from one another by dielectric layers (DL3-DL16) in a stack (610, 616); and a set of NAND strings (700n-703n, 710n-713n, 720n-723n, 730n-733n) extending through the plurality of word line layers, the set of NAND strings are arranged between a first region and a second region which extend vertically in the stack, wherein the first vertically extending region and the second vertically extending region are either an isolation region (804, 806) or a local interconnect (617, 800, 801, 805), wherein the set of NAND strings comprises NAND strings in a first edge region of the stack adjacent to the first vertically extending region, a second edge region of the stack adjacent to the second vertically extending region, and an interior region (1021, 1027) between the first and second edge regions, and wherein each NAND string of the set of NAND strings comprises in the first and second edge regions a channel which is doped, and in the interior region between the first and second edge regions a channel which is undoped, characterised in that: each NAND string in the set of NAND strings comprises a blocking oxide layer, wherein the blocking oxide layers of NAND strings in the first and second edge regions are thinner than the blocking oxide layers of NAND strings in the interior region.
A gas cleaning separator for separating a flowable mixture of a gas and liquid; the separator comprising: a stationary housing defining an inner space, a rotor assembly (78',84',86') for imparting a rotary motion onto said mixture of gas and liquid the rotor assembly (78',84',86') being located in said inner space and rotatable about an axis relative to the stationary housing, wherein the rotor assembly comprises an inlet for receiving said mixture of gas and liquid, an outlet from which said gas and liquid are ejected from the rotor assembly during use, and a flow path for providing fluid communication between the inlet and outlet, wherein the outlet is positioned more radially outward from said axis than the inlet; and a stationary housing member defining a region for receiving cleaned gas ejected from the rotor assembly (78',84',86') and directing said cleaned gas towards a first outlet aperture of the stationary housing (4',70'); characterised in that an inlet to said region comprises one lengthwise portion of greater depth than other lengthwise portions of said inlet, wherein said stationary housing member is located adjacent an end member of the rotor assembly (78',84'86'), said region being defined between the end member and the stationary housing member, wherein said inlet to said region is defined by the end member and a perimeter edge of the stationary housing member, and wherein said other lengthwise portions have a depth between one tenth and one half that of said lengthwise portion and preferably have a depth one third that of said lengthwise portion. a stationary housing defining an inner space, a rotor assembly (78',84',86') for imparting a rotary motion onto said mixture of gas and liquid the rotor assembly (78',84',86') being located in said inner space and rotatable about an axis relative to the stationary housing, wherein the rotor assembly comprises an inlet for receiving said mixture of gas and liquid, an outlet from which said gas and liquid are ejected from the rotor assembly during use, and a flow path for providing fluid communication between the inlet and outlet, wherein the outlet is positioned more radially outward from said axis than the inlet; and a stationary housing member defining a region for receiving cleaned gas ejected from the rotor assembly (78',84',86') and directing said cleaned gas towards a first outlet aperture of the stationary housing (4',70'); characterised in that an inlet to said region comprises one lengthwise portion of greater depth than other lengthwise portions of said inlet, wherein said stationary housing member is located adjacent an end member of the rotor assembly (78',84'86'), said region being defined between the end member and the stationary housing member, wherein said inlet to said region is defined by the end member and a perimeter edge of the stationary housing member, and wherein said other lengthwise portions have a depth between one tenth and one half that of said lengthwise portion and preferably have a depth one third that of said lengthwise portion.
A polyimide resin composition comprising: a polyimide resin produced by reacting a tetracarboxylic dianhydride with a diamine containing a phenolic hydroxyl group-containing diamine in an amount of from 5 to 100 mol% of the total diamine; and silica microparticles, in a ratio by mass of from 25/75 to 60/40. a polyimide resin produced by reacting a tetracarboxylic dianhydride with a diamine containing a phenolic hydroxyl group-containing diamine in an amount of from 5 to 100 mol% of the total diamine; and silica microparticles,
Method of manufacturing a negative electrode active material for an electrical device including a secondary battery, a primary battery or a capacitor, the negative electrode active material comprising a silicon-containing alloy including a structure in which a phase mainly containing amorphous or low-crystalline silicon formed by dissolving tin in a crystal structure of silicon is dispersed in a parent phase of a silicide phase including TiSi 2, and having a composition expressed by Chemical Formula: [Chemical formula 1] Chemical Formula Si x Sn y Ti z A a wherein in the above Chemical Formula, A represents an inevitable impurity, x, y, z, and a represent values in mass%, and 60 ≤ x ≤ 73, 2 ≤ y ≤ 15, 25 ≤ z ≤ 35, 0 ≤ a < 0.5, and x + y + z + a = 100 are satisfied, and wherein when a peak intensity of a Si-O bond peak that is observed at a position where an interatomic distance in a radial wave function observed by XAFS is 0.13 nm is S and a peak intensity of a Si-Si bond peak that is observed at a position where the interatomic distance is 0.2 nm is S, a relation of S > S is satisfied; characterized in that the method comprises: carrying out a mechanical alloying treatment using a ball mill device with a centrifugal force of 50 or more, or carrying out a mechanical alloying treatment after a rapid solidification step. carrying out a mechanical alloying treatment using a ball mill device with a centrifugal force of 50 or more, or carrying out a mechanical alloying treatment after a rapid solidification step.
A method for producing a hot-dip Zn alloy-plated steel sheet, comprising: forming a hot-dip Zn alloy plating layer on a surface of a substrate steel sheet by immersing the substrate steel sheet in a hot-dip Zn alloy plating bath containing Al and Mg; and contacting an aqueous solution containing a polyatomic ion including V 5+ with a surface of the hot-dip Zn alloy plating layer, to thereby cool the substrate steel sheet and the hot-dip Zn alloy plating layer whose temperatures have been increased through formation of the hot-dip Zn alloy plating layer, wherein the aqueous solution contains the polyatomic ion in a concentration of 0.01 g/L or more in terms of atom of V, and a surface temperature of the hot-dip Zn alloy plating layer when the aqueous solution is contacted with the surface of the hot-dip Zn alloy plating layer is 100°C or above and equal to or less than a solidifying point of the plating layer. forming a hot-dip Zn alloy plating layer on a surface of a substrate steel sheet by immersing the substrate steel sheet in a hot-dip Zn alloy plating bath containing Al and Mg; and contacting an aqueous solution containing a polyatomic ion including V 5+ with a surface of the hot-dip Zn alloy plating layer, to thereby cool the substrate steel sheet and the hot-dip Zn alloy plating layer whose temperatures have been increased through formation of the hot-dip Zn alloy plating layer, wherein the aqueous solution contains the polyatomic ion in a concentration of 0.01 g/L or more in terms of atom of V, and a surface temperature of the hot-dip Zn alloy plating layer when the aqueous solution is contacted with the surface of the hot-dip Zn alloy plating layer is 100°C or above and equal to or less than a solidifying point of the plating layer.
A household appliance comprising a body and a UV light source that entirely or partially illuminates the interior of the body and emits UV (ultraviolet) radiation and characterized by an indicator disposed on the body and comprising a UV reactive light emitter with a UV reactive material that emits light of the visible wavelength activated by ultraviolet light when the UV rays emitted by said UV light source affect thereon.