mhurhangee/ep-ind-claims huggingface dataset:
A circuit for starting an air conditioner, comprising: a DC power supply, is configured to supply a DC power to an controller which is a main chip of an air conditioner outdoor unit; a communication line, which is connected between the air conditioner outdoor unit and an air conditioner indoor unit; a main chip of the air conditioner indoor unit, which is configured to outputs a control signal when the air conditioner indoor unit is powered on by an indoor and outdoor unit connecting line, and the DC power supply is connected to the communication line under an action of the control signal, and the DC power supply supplies DC power to the controller through the communication line; the controller, which is configured to generate a start triggering signal when the DC power supply supplies DC power to the controller through the communication line; and a switch circuit, switching on, triggered by the start triggering signal, a power supply loop between an AC power supply and the air conditioner outdoor unit to start the air conditioner outdoor unit, wherein the AC power supply is disposed on the air conditioner outdoor unit. a DC power supply, is configured to supply a DC power to an controller which is a main chip of an air conditioner outdoor unit; a communication line, which is connected between the air conditioner outdoor unit and an air conditioner indoor unit; a main chip of the air conditioner indoor unit, which is configured to outputs a control signal when the air conditioner indoor unit is powered on by an indoor and outdoor unit connecting line, and the DC power supply is connected to the communication line under an action of the control signal, and the DC power supply supplies DC power to the controller through the communication line; the controller, which is configured to generate a start triggering signal when the DC power supply supplies DC power to the controller through the communication line; and a switch circuit, switching on, triggered by the start triggering signal, a power supply loop between an AC power supply and the air conditioner outdoor unit to start the air conditioner outdoor unit, wherein the AC power supply is disposed on the air conditioner outdoor unit.
A wireless communication system comprising: a macrocell base station device; a micro base station device serving a cell having a region including at least a part of a region of a cell served by the macrocell base station device; and a mobile station device, wherein one of the macrocell base station device and the micro base station device comprises: a handover determining unit configured to determine that the micro base station device is to be excluded from being a candidate for a handover destination of the mobile station device, the determination being performed in a case that a number of handovers between the micro base station device and the mobile station device is over a given number within a given duration; and a reporter configured to report, to the mobile station device, micro base station information which is based on the determination result determined by the handover determining unit, and the mobile station device comprises: a handover destination selector configured to exclude, based on the micro base station information reported, the micro base station device from being a candidate for a handover destination of the mobile station device, and to select a handover destination. a macrocell base station device; a micro base station device serving a cell having a region including at least a part of a region of a cell served by the macrocell base station device; and a mobile station device, wherein one of the macrocell base station device and the micro base station device comprises: a handover determining unit configured to determine that the micro base station device is to be excluded from being a candidate for a handover destination of the mobile station device, the determination being performed in a case that a number of handovers between the micro base station device and the mobile station device is over a given number within a given duration; and a reporter configured to report, to the mobile station device, micro base station information which is based on the determination result determined by the handover determining unit, and a handover determining unit configured to determine that the micro base station device is to be excluded from being a candidate for a handover destination of the mobile station device, the determination being performed in a case that a number of handovers between the micro base station device and the mobile station device is over a given number within a given duration; and a reporter configured to report, to the mobile station device, micro base station information which is based on the determination result determined by the handover determining unit, and the mobile station device comprises: a handover destination selector configured to exclude, based on the micro base station information reported, the micro base station device from being a candidate for a handover destination of the mobile station device, and to select a handover destination.
A method of manufacturing a component of a rotary machine that has at least one inner passage that extends from a center up to a boundary surface of the component and is at least partly closed, characterized in that a blank is provided that comprises the boundary surface and a top surface; in that a first subtractive machining step is carried out in which a part of the passage that at least comprises an opening of the passage into the boundary surface as well as a cut-out in the top surface is manufactured by means of machining production; and in that subsequently the passage is completed by means of build-up production on the blank, wherein the component comprises a plurality of inner passages of which each extends out of the center up to the boundary surface; wherein adjacent passages are each separated by a partition wall; wherein a respective part of the passage is manufactured in the first subtractive machining step of each passage, said part at least comprising an opening of the passage into the boundary surface and a cut-out in the top surface; and wherein each partition wall is only completed by means of the build-up production.
An encoder for encoding a vector (730; 902) comprising channel state information, CSI, the encoder comprising: - a determining unit configured to determine an initial cell (620; 822, 824; 920) of an initial sphere mesh (605; 805, 815, 815'), wherein the initial cell includes the vector (730; 902); wherein in the initial sphere mesh, the index of the initial cell is computed through: i ∗ = arg max(| g 1 |,..., | g d |), where: g = Re h 1 r ⋮ Re h D r Im h 2 r ⋮ Im h D r g represents a unit-norm real vector, h represents a unit-norm CSI vector, h ( r) = he - iφ and φ = arg(h 1), - a mesh refinement unit configured to determine a refined sphere mesh (815, 815') based on the initial sphere mesh, wherein a mapping T i * between the initial cell C i * and a (d-1)-dimensional unit cube is defined by: T i *: C i * → 0 1 d − 1 g = g 1,..., g d T ↦ u 1,..., u d − 1 T with for any 1 ≤ i ≤ d -1 { u i = 2 π tan − 1 g i g i * + 1 2 for i < i * u i = 2 π tan − 1 g i + 1 g i * + 1 2 for i ≥ i *. and - a representation unit configured to determine a binary representation of a first identifier of the initial cell of the initial sphere mesh that includes the vector (730; 902) and a second identifier of a refined cell (822, 824) of the refined sphere mesh that includes the vector, wherein the second identifier is represented by a concatenation of a binary representation of ⌊ 2 B i u i − 1 2 ⌋ where B i is the number of bits used to quantize u i. - a determining unit configured to determine an initial cell (620; 822, 824; 920) of an initial sphere mesh (605; 805, 815, 815'), wherein the initial cell includes the vector (730; 902); wherein in the initial sphere mesh, the index of the initial cell is computed through: i ∗ = arg max(| g 1 |,..., | g d |), where: g = Re h 1 r ⋮ Re h D r Im h 2 r ⋮ Im h D r g represents a unit-norm real vector, h represents a unit-norm CSI vector, h ( r) = he - iφ and φ = arg(h 1), - a mesh refinement unit configured to determine a refined sphere mesh (815, 815') based on the initial sphere mesh, wherein a mapping T i * between the initial cell C i * and a (d-1)-dimensional unit cube is defined by: T i *: C i * → 0 1 d − 1 g = g 1,..., g d T ↦ u 1,..., u d − 1 T with for any 1 ≤ i ≤ d -1 { u i = 2 π tan − 1 g i g i * + 1 2 for i < i * u i = 2 π tan − 1 g i + 1 g i * + 1 2 for i ≥ i *. and - a representation unit configured to determine a binary representation of a first identifier of the initial cell of the initial sphere mesh that includes the vector (730; 902) and a second identifier of a refined cell (822, 824) of the refined sphere mesh that includes the vector, wherein the second identifier is represented by a concatenation of a binary representation of ⌊ 2 B i u i − 1 2 ⌋ where B i is the number of bits used to quantize u i.
An optical lens system, from an object side to an imaging surface thereof, sequentially consisting of: a first lens having a negative refractive power and a concave surface facing the object side; a second lens having a positive refractive power and two convex surfaces; a third lens having a positive refractive power and a convex surface facing the object side; a fourth lens having a positive refractive power and two convex surfaces; a fifth lens having a negative refractive power and two concave surfaces, the fourth lens and the fifth lens constituting a cemented lens; a sixth lens having a positive refractive power, a convex surface facing the object side and a concave surface facing the imaging surface; and a seventh lens having a negative refractive power and a concave surface facing the imaging surface; wherein the optical lens system further comprises a stop disposed between the first lens and the third lens, the first lens, the fourth lens and the fifth lens are glass spherical lenses, and the seventh lens is a glass aspheric lens; characterized in that the optical lens system satisfies the following expressions: 0.2 < IH / θ < 0.3; 0.5 < f 1 / r 1 < 3; 1 < f 3 / r 5 < 4; where θ represents half field angle of the optical lens system, IH represents an image height when the half field angle is θ, f 1 represents a focal length of the first lens, r 1 represents a radius of curvature of an object side surface of the first lens, f 3 represents a focal length of the third lens, r 5 represents a radius of curvature of an object side surface of the third lens. a first lens having a negative refractive power and a concave surface facing the object side; a second lens having a positive refractive power and two convex surfaces; a third lens having a positive refractive power and a convex surface facing the object side; a fourth lens having a positive refractive power and two convex surfaces; a fifth lens having a negative refractive power and two concave surfaces, the fourth lens and the fifth lens constituting a cemented lens; a sixth lens having a positive refractive power, a convex surface facing the object side and a concave surface facing the imaging surface; and a seventh lens having a negative refractive power and a concave surface facing the imaging surface; wherein the optical lens system further comprises a stop disposed between the first lens and the third lens, the first lens, the fourth lens and the fifth lens are glass spherical lenses, and the seventh lens is a glass aspheric lens; characterized in that the optical lens system satisfies the following expressions: 0.2 < IH / θ < 0.3; 0.5 < f 1 / r 1 < 3; 1 < f 3 / r 5 < 4; where θ represents half field angle of the optical lens system, IH represents an image height when the half field angle is θ, f 1 represents a focal length of the first lens, r 1 represents a radius of curvature of an object side surface of the first lens, f 3 represents a focal length of the third lens, r 5 represents a radius of curvature of an object side surface of the third lens.
Process for the production of C2-C4 olefins comprising the step of contacting syngas with a iron-based catalyst at a temperature in the range from 250 °C to 350°C and at a pressure in the range from 1 MPa to 4 MPa (10 bar to 40 bar) the catalyst including iron and/or iron oxide particles as active component arranged on a metal oxide support or matrix chosen from the group including alumina, titania, silica, magnesium oxide, silica-alumina, ferrous materials such as magnetite, wustite, cordierite and mixtures thereof, wherein said iron-based catalyst comprises nano-sized Fe particles as active component which are dispersed on a support or matrix, said nano-sized Fe particles being Fe nano-particles, Fe alloy nano-particles, nano-particles having an iron or iron alloy core and an iron-oxide shell or mixtures thereof, wherein said nano-sized Fe particles are substantially spherical and have a diameter less than 50 nm, and wherein the content of said nano-sized Fe particles is comprised between 1% and 5% by weight on the weight of the support or matrix.
Furnace, in particular a continuous furnace, for controlling a temperature of at least one substrate, the furnace comprising a housing which comprises an intake opening and an outtake opening, wherein between the intake opening and the outtake opening a temperature-controlled section is formed, a carrier element for carrying the at least one substrate, wherein the carrier element is movable along a transport direction through the intake opening into the temperature-controlled section and from the temperature-controlled section through the outtake opening, wherein a temperature controlling element is thermally coupled to the temperature-controlled section for controlling the temperature of the temperature-controlled section, wherein the temperature-controlled section comprises a gas inlet through which a gas is blowable for controlling the temperature of the temperature-controlled section, characterized in that, at least one of the intake opening and the outtake opening comprised within the housing comprises a further gas inlet through which a barrier gas is injectable such that a gas barrier is generated for isolating the temperature-controlled section from an outside environment of the temperature-controlled section or from an adjoining section of the temperature-controlled section.
An aquaculture net comprising steel wires, characterized in that the upper part of said net comprises steel wires having a tensile strength greater than 1500 MPa and the lower part of said net comprises steel wires having a tensile strength lower than the tensile strength of the upper part.
A method for manufacturing a bonded substrate that is formed by bonding a base substrate to a bond substrate and has an insulator layer in part of the bonded substrate, the method comprising at least: a porous layer forming step of partially forming a porous layer or forming a porous layer whose thickness partially varies on a bonding surface of the base substrate; an insulator layer forming step of performing a heat treatment to the base substrate having the porous layer formed thereon to change the porous layer into the insulator layer, and thereby forming the insulator layer whose thickness partially varies on the bonding surface of the base substrate; an insulator layer removing step of removing the insulator layer whose thickness varies by an amount corresponding to a thickness of a small-thickness portion by etching, and thereby exposing the unetched remaining insulator layer on part of the bonding surface of the base substrate; a bonding step of bonding the bonding surface of the base substrate on which the unetched remaining insulator layer is exposed to the bond substrate; and a thin film forming step of reducing a thickness of the bonded bond substrate and thereby forming a thin film layer. a porous layer forming step of partially forming a porous layer or forming a porous layer whose thickness partially varies on a bonding surface of the base substrate; an insulator layer forming step of performing a heat treatment to the base substrate having the porous layer formed thereon to change the porous layer into the insulator layer, and thereby forming the insulator layer whose thickness partially varies on the bonding surface of the base substrate; an insulator layer removing step of removing the insulator layer whose thickness varies by an amount corresponding to a thickness of a small-thickness portion by etching, and thereby exposing the unetched remaining insulator layer on part of the bonding surface of the base substrate; a bonding step of bonding the bonding surface of the base substrate on which the unetched remaining insulator layer is exposed to the bond substrate; and a thin film forming step of reducing a thickness of the bonded bond substrate and thereby forming a thin film layer.
A self-propelled flat-bed trolley, comprising; motorized locomotion means, a load-bearing platform, an articulated crane having a telescopic arm adapted to load and unload articles to and from said platform, a control means for said motorized locomotion means and articulated crane means, and characterized in that it comprises at least one further arm hingeably attached to said trolley and moveable between a first and a second position, wherein in said first position said further arm acts as a stabilizing outrigger for said trolley, and in said second position said further arm secures any articles loaded atop the platform.
A method of operating a network component (20; 14) in a heterogeneously deployed network comprising first and second serving nodes (12, 14) of different nominal transmit powers and at least partially overlapping coverage areas (16, 18), wherein a wireless communication device is simultaneously connected to the first and second serving nodes (12, 14) and alternately communicates with the first and second serving nodes (12, 14) in accordance with a communication pattern comprising communication periods and communication pauses, characterized in that the wireless communication device is connected to the first serving node via an anchor carrier configured to primarily transmit control information, and wherein the wireless communication device is connected to the second serving node via a booster carrier configured to primarily transmit user data, the method being performed by the network component being one of the wireless communication device and the first serving node and comprises: detecting (502; 806) an event that requires an extension of a communication period on the anchor carrier between the wireless communication device and the first serving node; and transmitting (504; 810) a notification message to the second serving node, the notification message being indicative of a required extension of a communication pause on the booster carrier with the second serving node. detecting (502; 806) an event that requires an extension of a communication period on the anchor carrier between the wireless communication device and the first serving node; and transmitting (504; 810) a notification message to the second serving node, the notification message being indicative of a required extension of a communication pause on the booster carrier with the second serving node.
A method for implementing counting control of a counter in a network chip, which is applicable to the network chip with a processor and the counter, comprising: reading a counting value of a corresponding counter item; analyzing and judging whether the read counting value is less than a preset overflow threshold; informing the processor to handle counting abnormality of the counter when the read counting value is not less than the preset overflow threshold; characterized in that the method further comprises a step of periodically generating a counting value scanning message, the counting value of the corresponding counter item being read according to the generated counting value scanning message; in that contents of the counting value scanning message comprise a counter item index, the counter item index being carried in the periodically generated counting value scanning message; and in that a value of the counter item index is periodically increased, and a scanning period of each counter item is NT, wherein N is the number of counter items in the counter, and T is a generating period of the counting value scanning message. reading a counting value of a corresponding counter item; analyzing and judging whether the read counting value is less than a preset overflow threshold; informing the processor to handle counting abnormality of the counter when the read counting value is not less than the preset overflow threshold; characterized in that the method further comprises a step of periodically generating a counting value scanning message, the counting value of the corresponding counter item being read according to the generated counting value scanning message; in that contents of the counting value scanning message comprise a counter item index, the counter item index being carried in the periodically generated counting value scanning message; and in that a value of the counter item index is periodically increased, and a scanning period of each counter item is NT, wherein N is the number of counter items in the counter, and T is a generating period of the counting value scanning message.
Substrate, in particular for receiving biological cells, comprising: - a substrate body that comprises a carrier surface, - one or more intermediate layers Z which is/are applied to the carrier surface, wherein at least one intermediate layer contains a biologically active substance or biological cells for generating a biologically active substance and the biologically active substance is a paracrine factor, a hormone, an enzyme, a biochemical transmitter, or combinations thereof, - a layer M that is applied to the uppermost intermediate layer and contains microgel particles which comprise at least one thermoresponsive polymer. - a substrate body that comprises a carrier surface, - one or more intermediate layers Z which is/are applied to the carrier surface, wherein at least one intermediate layer contains a biologically active substance or biological cells for generating a biologically active substance and the biologically active substance is a paracrine factor, a hormone, an enzyme, a biochemical transmitter, or combinations thereof, - a layer M that is applied to the uppermost intermediate layer and contains microgel particles which comprise at least one thermoresponsive polymer.