mhurhangee/ep-ind-claims huggingface dataset:
A catalyst composition comprising: (i) an activator-support comprising a solid oxide treated with an electron-withdrawing anion; and (ii) an ansa -metallocene compound having formula: E(Cp A R A m)(Cp B R B n)MX q, wherein: M is Ti, Zr, Hf, Cr, Sc, Y, La, or a lanthanide; Cp A and Cp B independently are a cyclopentadienyl, indenyl, or fluorenyl group; each R A and R B independently is H or a hydrocarbyl, hydrocarbylsilyl, hydrocarbylamino, or hydrocarbyloxide group having up to 18 carbon atoms; E is a bridging chain of 2 to 8 silicon, germanium, or tin atoms, wherein any substituents on atoms of the bridging chain independently are H or a hydrocarbyl group having up to 18 carbon atoms; each X independently is F; Cl; Br; I; methyl; benzyl; phenyl; H; BH 4; OBR 2 or SO 3 R, wherein R is an alkyl or aryl group having up to 18 carbon atoms; or a hydrocarbyloxide group, a hydrocarbylamino group, or a hydrocarbylsilyl group, any of which having up to 18 carbon atoms; m is 0, 1, 2, 3, or 4; n is 0, 1, 2, 3, or 4; q is 2 when M is Ti, Zr, or Hf; and q is 1 when M is Cr, Sc, Y, La, or a lanthanide. (i) an activator-support comprising a solid oxide treated with an electron-withdrawing anion; and (ii) an ansa -metallocene compound having formula: E(Cp A R A m)(Cp B R B n)MX q, wherein: M is Ti, Zr, Hf, Cr, Sc, Y, La, or a lanthanide; Cp A and Cp B independently are a cyclopentadienyl, indenyl, or fluorenyl group; each R A and R B independently is H or a hydrocarbyl, hydrocarbylsilyl, hydrocarbylamino, or hydrocarbyloxide group having up to 18 carbon atoms; E is a bridging chain of 2 to 8 silicon, germanium, or tin atoms, wherein any substituents on atoms of the bridging chain independently are H or a hydrocarbyl group having up to 18 carbon atoms; each X independently is F; Cl; Br; I; methyl; benzyl; phenyl; H; BH 4; OBR 2 or SO 3 R, wherein R is an alkyl or aryl group having up to 18 carbon atoms; or a hydrocarbyloxide group, a hydrocarbylamino group, or a hydrocarbylsilyl group, any of which having up to 18 carbon atoms; m is 0, 1, 2, 3, or 4; n is 0, 1, 2, 3, or 4; q is 2 when M is Ti, Zr, or Hf; and q is 1 when M is Cr, Sc, Y, La, or a lanthanide. M is Ti, Zr, Hf, Cr, Sc, Y, La, or a lanthanide; Cp A and Cp B independently are a cyclopentadienyl, indenyl, or fluorenyl group; each R A and R B independently is H or a hydrocarbyl, hydrocarbylsilyl, hydrocarbylamino, or hydrocarbyloxide group having up to 18 carbon atoms; E is a bridging chain of 2 to 8 silicon, germanium, or tin atoms, wherein any substituents on atoms of the bridging chain independently are H or a hydrocarbyl group having up to 18 carbon atoms; each X independently is F; Cl; Br; I; methyl; benzyl; phenyl; H; BH 4; OBR 2 or SO 3 R, wherein R is an alkyl or aryl group having up to 18 carbon atoms; or a hydrocarbyloxide group, a hydrocarbylamino group, or a hydrocarbylsilyl group, any of which having up to 18 carbon atoms; m is 0, 1, 2, 3, or 4; n is 0, 1, 2, 3, or 4; q is 2 when M is Ti, Zr, or Hf; and q is 1 when M is Cr, Sc, Y, La, or a lanthanide.
A method for separating a granular mixture in a flowing medium consisting in a gravitational supply of a granular mixture's particles to be separated with an aerodynamic, monotonously increasing impact on them at an acute angle to a vertical by cascade of flat jets and the discharge of finished fractions, where the most of the air flow used air for separation is recycled through a return path to a drive supplying air to a generator of the cascade of flat jets discharging continuously volatile impurities together with dust and remaining air stream into environment through a unit in the form of a cyclone characterized in that the granular mixture, prior to be supplied in the flowing medium into an adjustable hopper, is preconditioned by removing therefrom large impurities of biological and mineral origin for further continuity of the separation process, and the cascade of flat jets is formed from a discharge of continuous and laminar air flow that has been previously equalized in terms of pressure, gravitational supply of loose granular mixture into a separation chamber is carried out by setting up optimally required kinetic energy of the falling granular mixture by means of a vibrating flat chute with the ability to adjust the height of the fall and the volume of the mixture, continuously supplied to the separation, changing automatically a power of the cascade of flat jets in case of an unexpected change of quantity or volume of gravitational supply of the granular mixture falling into the separation chamber, or a change of a parameters of an electric conduit, particularly, voltage, frequency, and other external factors that affect quality of the separation process by automatic appropriate adjustment of an operating mode or power of the drive supplying air to the generator, and the air flow that returns through the return duct is replenished with an additional volume of air that was lost while removing dust into the environment, and continuously or periodically an excess of air pressure is regulated in the separation chamber, in order to maintain constant flow conditions of the separation process of granular mixtures and to protect the separation zone or area of the granular mixture from impact of the environment on the separation process, wherein the entire process of separation, from loading granular mixture to discharging of finished fractions, can be controlled visually, and finished fractions can be diverted and move away to any distance from a fraction collector to the desired location defined by technological tasks.
An edge protection system for use with concrete flooring, including an initial edge unit having a first part and a second part, the first part for coupling to an edge portion of a first concrete flooring panel and the second part for coupling to an opposed edge portion of a second, neighbouring, concrete flooring panel, the system also including an angled edge unit having a first part and a second part, the first part for coupling to another edge portion of the second concrete flooring panel and the second part for coupling to an opposed edge portion of a third, neighbouring, concrete flooring panel, and a modular intersection part at an intersection of the first to third panels, wherein the modular intersection part is adapted to be coupled to the initial edge unit with the initial edge unit extending radially from the modular intersection part in a first direction, and wherein the modular intersection part is adapted to be coupled to the angled edge unit with the angled edge unit extending radially from the modular intersection part in a second direction at an angle to the first direction; wherein the second direction is perpendicular to the first direction; and characterised in that the system comprises a bridging pin formed with a 90 degree bend to couple together the perpendicular edge units (80, 82) and the modular intersection part. an initial edge unit having a first part and a second part, the first part for coupling to an edge portion of a first concrete flooring panel and the second part for coupling to an opposed edge portion of a second, neighbouring, concrete flooring panel, the system also including an angled edge unit having a first part and a second part, the first part for coupling to another edge portion of the second concrete flooring panel and the second part for coupling to an opposed edge portion of a third, neighbouring, concrete flooring panel, and a modular intersection part at an intersection of the first to third panels, wherein the modular intersection part is adapted to be coupled to the initial edge unit with the initial edge unit extending radially from the modular intersection part in a first direction, and wherein the modular intersection part is adapted to be coupled to the angled edge unit with the angled edge unit extending radially from the modular intersection part in a second direction at an angle to the first direction; wherein the second direction is perpendicular to the first direction; and characterised in that the system comprises a bridging pin formed with a 90 degree bend to couple together the perpendicular edge units (80, 82) and the modular intersection part.
A lithium-ion battery cell, comprising: a positive plate; a membrane; and a negative plate, wherein a plurality of positive lugs is arranged along a winding direction on the positive plate in a unfolded state, a plurality of negative lugs is arranged along the winding direction on the negative plate in a unfolded state, and the positive plate and the negative plate are separated by the membrane and are wound to form the lithium-ion battery cell, the plurality of positive lugs forms a lug laminated structure, and the plurality of negative lugs forms a lug laminated structure, and wherein the plurality of positive lugs is arranged in parallel in a direction along a length of the positive plate; a first lug margin x 1 indicates a distance between a first positive lug and a head of the positive plate relative to the winding direction, a distance between each of the positive lugs other than the first positive lug and the head of the positive plate is indicated by d 1, with d 1 =n 1 w-x 1 +(0.5πt∑n 1 -0.5πt) or d 1 =n 3 w+x 1 +[0.5πt∑(n 3 +1)-0.5πt]; the lithium-ion battery cell is square, and the plurality of positive lugs forms the lug laminated structure; where t indicates a sum of thicknesses of the positive plate, the membrane and the negative plate, w indicates a width of the cell, the first positive lug is the one of the positive lugs which is located closest to the head of the positive plate, n 1 indicates that a positive lug is located at the n 1 -th w on the positive plate along a direction from the head to a tail of the positive plate, and n 3 indicates that a positive lug is located at the (n 3 +1)-th w on the positive plate along the direction from the head to the tail of the positive plate. a positive plate; a membrane; and a negative plate, wherein a plurality of positive lugs is arranged along a winding direction on the positive plate in a unfolded state, a plurality of negative lugs is arranged along the winding direction on the negative plate in a unfolded state, and the positive plate and the negative plate are separated by the membrane and are wound to form the lithium-ion battery cell, the plurality of positive lugs forms a lug laminated structure, and the plurality of negative lugs forms a lug laminated structure, and wherein the plurality of positive lugs is arranged in parallel in a direction along a length of the positive plate; a first lug margin x 1 indicates a distance between a first positive lug and a head of the positive plate relative to the winding direction, a distance between each of the positive lugs other than the first positive lug and the head of the positive plate is indicated by d 1, with d 1 =n 1 w-x 1 +(0.5πt∑n 1 -0.5πt) or d 1 =n 3 w+x 1 +[0.5πt∑(n 3 +1)-0.5πt]; the lithium-ion battery cell is square, and the plurality of positive lugs forms the lug laminated structure;
A device for attracting and killing flies comprising: a substrate member having a solid side wall surface with a blue colour substantially across a face of the surface, the blue colour being an attractant for the flies; at least one narrow diameter elongated member having a portion directly located on the solid side wall surface and having a black colour which contrasts with the blue colour on the solid side wall surface such that the portion of the at least one narrow diameter elongated member located on the substrate member appears to be a crack to the flies, wherein the crack is perceived to be a shelter to the flies; a substance associated with the device for killing or catching flies, wherein the at least one narrow diameter elongated member is treated with the substance, wherein the substrate member is a triangular-shaped container. a substrate member having a solid side wall surface with a blue colour substantially across a face of the surface, the blue colour being an attractant for the flies; at least one narrow diameter elongated member having a portion directly located on the solid side wall surface and having a black colour which contrasts with the blue colour on the solid side wall surface such that the portion of the at least one narrow diameter elongated member located on the substrate member appears to be a crack to the flies, wherein the crack is perceived to be a shelter to the flies; a substance associated with the device for killing or catching flies, wherein the at least one narrow diameter elongated member is treated with the substance, wherein the substrate member is a triangular-shaped container.
A method for controlling a liquid ejection apparatus including an ejection port that ejects a liquid, a pressure chamber communicating with the ejection port and having therein an energy generating element to generate energy for ejecting the liquid, first and second flow paths communicating with the pressure chamber to supply the liquid to the pressure chamber as a liquid circulation and to collect the liquid from the pressure chamber, a negative pressure generating section configured to generate a negative pressure, a negative pressure control section using the negative pressure generated by the negative pressure generating section to adjust a pressure of the liquid flowing through one of the first and second flow paths (211, 212) that is connected, and a supply control section (401; 1001; 1020) configured to control the supply of the liquid to the pressure chamber and the stop of the supply, the method comprising the steps of: generating energy for ejecting the liquid by the energy generating element; supplying the liquid to the pressure chamber as a liquid circulation and collecting the liquid from the pressure chamber by the first and second flow paths (211, 212); generating a negative pressure by the negative pressure generating section; using the negative pressure generated by the negative pressure generating section by the negative pressure control section to adjust the pressure of the liquid flowing through one of the first and second flow paths (211, 212); controlling the supply of the liquid to the pressure chamber and the stop of the supply by the supply control section (401; 1001; 1020) and characterized by stopping a flow of the liquid by stopping the supply of the liquid by the supply control section (401; 1001; 1020) so that the liquid circulation is stopped, and then stopping the negative pressure generating section so that a negative pressure is maintained downstream of the negative pressure control section even after stopping the liquid circulation. generating energy for ejecting the liquid by the energy generating element; supplying the liquid to the pressure chamber as a liquid circulation and collecting the liquid from the pressure chamber by the first and second flow paths (211, 212); generating a negative pressure by the negative pressure generating section; using the negative pressure generated by the negative pressure generating section by the negative pressure control section to adjust the pressure of the liquid flowing through one of the first and second flow paths (211, 212); controlling the supply of the liquid to the pressure chamber and the stop of the supply by the supply control section (401; 1001; 1020) and characterized by stopping a flow of the liquid by stopping the supply of the liquid by the supply control section (401; 1001; 1020) so that the liquid circulation is stopped, and then stopping the negative pressure generating section so that a negative pressure is maintained downstream of the negative pressure control section even after stopping the liquid circulation.
Magnetic pigments, comprising a transparent flaky homogeneously composed substrate having two parallel major surfaces and a coating comprising a layered structure consisting of a first layer composed of hematite and/or goethite and of a second layer composed of magnetite, in this sequence, at least on the two major surfaces of the substrate, wherein the thickness of the layer composed of magnetite is larger than the thickness of the layer composed of hematite and/or goethite, wherein the substrate is of a synthetically produced material which is of Al 2 O 3, of Al 2 O 3 containing up to 5% by weight TiO 2, of SiO 2, of SiO 2 containing up to 20% by weight silicon hydroxide, of glass or of a borosilicate and wherein the magnetic pigments comprise furthermore one or more dielectric layers on top of the magnetite layer, wherein the dielectric layers are composed of a high refractive index layer and a silicon oxide hydrate layer, the high refractive index layer being located on top of the silicon oxide hydrate layer.
Device for generating a DC voltage or a DC current, comprising at least one rectifier element and at least one transformer that has at least one primary winding that is to be connected via conductors (PL1, PL2) of a power supply line to an AC voltage source and at least one secondary winding connected to a load, which are arranged on a related magnet frame, which serves for conducting a magnetic flux Φ, characterized in that the at least one primary winding is connected in series with the at least one rectifier element and the AC voltage source such that for each AC half-wave of corresponding polarity a primary current I1 is conductable through the at least one rectifier element and through the at least one primary winding, which drives the magnetic flux Φ always in the same direction through the magnet frame and that the rectifier element or the rectifier elements (D1, D2, or D R or D S or D T, or D R1; D R2 or D S1; D S2 or D T1; D T2) have a control input (cl; cl R, cl S, cl T) connected to a control unit (CTRL) and are controllable by the control unit (CTRL) such that the phases of the half-waves of identical polarity, which are to be transferred, are cut.
A speech recognition method, wherein the method comprises: collecting, by a Bluetooth wearable device, a fingerprint pattern input by a user and at a first working frequency a first speech signal input by the user, the first speech signal input includes a preset wake-up phrase; collecting, by the Bluetooth wearable device at a second working frequency greater than the first working frequency upon identifying the preset wake-up phrase a second speech signal input by the user; performing, by the Bluetooth wearable device, authentication on the fingerprint pattern input by the user; after the authentication succeeds sending, by the Bluetooth wearable device, the second speech signal input to an electronic device; receiving, by the electronic device, the second speech signal input; executing, by the electronic device, a function corresponding to the second speech signal input. collecting, by a Bluetooth wearable device, a fingerprint pattern input by a user and at a first working frequency a first speech signal input by the user, the first speech signal input includes a preset wake-up phrase; collecting, by the Bluetooth wearable device at a second working frequency greater than the first working frequency upon identifying the preset wake-up phrase a second speech signal input by the user; performing, by the Bluetooth wearable device, authentication on the fingerprint pattern input by the user; after the authentication succeeds sending, by the Bluetooth wearable device, the second speech signal input to an electronic device; receiving, by the electronic device, the second speech signal input; executing, by the electronic device, a function corresponding to the second speech signal input.
A device for transmitting electric power from a fixed wall to a door which is mounted to the wall with articulation about a hinge axis, having a wall part which can be attached to the wall; having a door part which can be attached to the door; having a primary coil included on the wall part, comprising a primary wire-wound coil, and having a secondary coil included on the door part, comprising a secondary wire-wound coil, wherein the primary coil and the secondary coil are suitable for frequencies of at least 20 kHz, characterized in that the primary coil has a primary coil body with ferromagnetic properties, and the secondary coil has a secondary coil body with ferromagnetic properties, in that the end faces (21, 22) of the primary coil and the secondary coil, facing each other, adjoin each other at least nearly, in that the primary and secondary wire-wound coils (31, 32) are positioned in the interior of the coil bodies (24, 25), and the primary coil body and/or the secondary coil body has an inner cylindrical wall shell (27, 28), the primary wire-wound coil and/or the secondary wire-wound coil being wound around the same, and in that the primary and secondary coil bodies (23, 24) each comprise an opening which extends in the direction of the hinge axis, approximately concentrically to the inner wall shell (27, 28), wherein a pin which defines the hinge axis can be pushed through the same, said pin having a sleeve, with ferromagnetic properties, over the length which is covered by the primary and by the secondary coils.
A monitoring system comprising: a first gas sensor configured to be disposed in a first agricultural land for cultivating a plant and configured to detect a gas component; a second gas sensor configured to be disposed in a second agricultural land in which the plant is not cultivated and configured to have a same gas detection function as the first gas sensor; and a controller configured to output information about gas generated from the plant based on a first detection result of the first gas sensor and a second detection result of the second gas sensor, characterised in that the controller is configured to output information obtained by excluding a common gas component from the first detection result as the information about gas generated from the plant when the common gas component is included between the first detection result and the second detection result. a first gas sensor configured to be disposed in a first agricultural land for cultivating a plant and configured to detect a gas component; a second gas sensor configured to be disposed in a second agricultural land in which the plant is not cultivated and configured to have a same gas detection function as the first gas sensor; and a controller configured to output information about gas generated from the plant based on a first detection result of the first gas sensor and a second detection result of the second gas sensor, characterised in that the controller is configured to output information obtained by excluding a common gas component from the first detection result as the information about gas generated from the plant when the common gas component is included between the first detection result and the second detection result.