mhurhangee/ep-ind-claims huggingface dataset:
A nano-structure, comprising: an operational area; a plurality of ridges; a plurality of trenches, each trench being defined by two adjacent ridges; and an outer area at an edge of the nano-structure, wherein: a width of the outer area defined by a distance from the edge of the nano-structure is less than 100 μm; a depth of trenches in the outer area changes gradually between 0% and at least 50% of a maximum depth of trenches in the operational area of the nano-structure, to limit damage to at least one of a mold or the nano-structure during nanoimprinting. an operational area; a plurality of ridges; a plurality of trenches, each trench being defined by two adjacent ridges; and an outer area at an edge of the nano-structure, wherein: a width of the outer area defined by a distance from the edge of the nano-structure is less than 100 μm; a depth of trenches in the outer area changes gradually between 0% and at least 50% of a maximum depth of trenches in the operational area of the nano-structure, to limit damage to at least one of a mold or the nano-structure during nanoimprinting. a width of the outer area defined by a distance from the edge of the nano-structure is less than 100 μm; a depth of trenches in the outer area changes gradually between 0% and at least 50% of a maximum depth of trenches in the operational area of the nano-structure, to limit damage to at least one of a mold or the nano-structure during nanoimprinting.
Device for discharging exhaust air from the environment of a metal strip, comprising: a conveying path for a metal strip; at least one fan, which is arranged at a side of the conveying path of the metal strip, for producing an air flow for conveying the exhaust air in a blowing direction transversely to the conveying path; and a suction device, which is opposite the fan in blowing direction on the other side of the conveying path, for inducting and discharging the air flow, which is produced by the fan, together with the exhaust air; characterised in that the fan is constructed as at least one air quantity booster; a sensor device is provided for measuring the speed at which the metal strip moves; and a control device is provided for setting the conveying performance of the air quantity booster and the suction device in dependence on the measured speed of the metal strip. a conveying path for a metal strip; at least one fan, which is arranged at a side of the conveying path of the metal strip, for producing an air flow for conveying the exhaust air in a blowing direction transversely to the conveying path; and a suction device, which is opposite the fan in blowing direction on the other side of the conveying path, for inducting and discharging the air flow, which is produced by the fan, together with the exhaust air; characterised in that the fan is constructed as at least one air quantity booster; a sensor device is provided for measuring the speed at which the metal strip moves; and a control device is provided for setting the conveying performance of the air quantity booster and the suction device in dependence on the measured speed of the metal strip.
A method for analyzing the degree of hydrophobicity of a powder, comprising the steps of: adding the powder to be evaluated for its degree of hydrophobicity to a solvent mixture of a lipophilic solvent and a hydrophilic solvent, continuously adding lipophilic solvent to the solvent mixture having the powder added thereto, measuring a voltage rate of the solvent mixture at predetermined time intervals by using a photovoltaic detector measuring a change with time of light transmittance, at least until the voltage rate reaches the minimum, provided that for data discrete values as measured, the voltage rate observed relative to time series t i (wherein i is an integer, t i < t i+1) is R i, the maximum of voltage rate is 100, and the minimum of voltage rate is R min, a parameter correlating to a powder concentration relative to an arbitrary voltage rate R in the range: R min < R < 100 is defined as x = 100 − R 100 − R min × 100 (wherein 0 < x < 100), a lipophilic solvent ratio in the solvent mixture corresponding to that x is represented by HP(x), a continuous function HP(x) of lipophilic solvent ratio is defined, for R meeting the range: R i+1 ≤ R < R i wherein i is an integer, as HP x = HP i ≠ 1 − HP i R i + 1 − R i × R − R i + HP i, and the parameter x (wherein 0 < x < 100) changes in proportion to a powder concentration c(t) (wherein 0 < c(t) < c max) or cumulative sedimentation weight W(t) (wherein 0 < W(t) < W max), computing HP(x) at a preselected value of x as a representative value of the lipophilic solvent ratio distribution, the HP(x) being regarded as an index of hydrophobicity. adding the powder to be evaluated for its degree of hydrophobicity to a solvent mixture of a lipophilic solvent and a hydrophilic solvent, continuously adding lipophilic solvent to the solvent mixture having the powder added thereto, measuring a voltage rate of the solvent mixture at predetermined time intervals by using a photovoltaic detector measuring a change with time of light transmittance, at least until the voltage rate reaches the minimum, provided that for data discrete values as measured, the voltage rate observed relative to time series t i (wherein i is an integer, t i < t i+1) is R i, the maximum of voltage rate is 100, and the minimum of voltage rate is R min, a parameter correlating to a powder concentration relative to an arbitrary voltage rate R in the range: R min < R < 100 is defined as x = 100 − R 100 − R min × 100 (wherein 0 < x < 100), a lipophilic solvent ratio in the solvent mixture corresponding to that x is represented by HP(x), a continuous function HP(x) of lipophilic solvent ratio is defined, for R meeting the range: R i+1 ≤ R < R i wherein i is an integer, as HP x = HP i ≠ 1 − HP i R i + 1 − R i × R − R i + HP i, and the parameter x (wherein 0 < x < 100) changes in proportion to a powder concentration c(t) (wherein 0 < c(t) < c max) or cumulative sedimentation weight W(t) (wherein 0 < W(t) < W max), computing HP(x) at a preselected value of x as a representative value of the lipophilic solvent ratio distribution, the HP(x) being regarded as an index of hydrophobicity.
Cable comprising an elongated conducting element and a self-healing material surrounding said elongated conducting element, characterized in that the self-healing material is a cross-linked material obtained from a polymeric composition comprising: A. a polymer matrix comprising at least one olefin polymer with hydrophilic moiety, said hydrophilic moiety containing polar functional groups, and B. at least one amphiphilic compound, as self-healing additive, the amphiphilic compound comprising: - an aliphatic chain, saturated or unsaturated, comprising at least four carbon atoms, as lipophilic moiety, and - a hydrophilic moiety, the polymeric composition comprising more than 50% by weight of the polymer matrix A. A. a polymer matrix comprising at least one olefin polymer with hydrophilic moiety, said hydrophilic moiety containing polar functional groups, and B. at least one amphiphilic compound, as self-healing additive, the amphiphilic compound comprising: - an aliphatic chain, saturated or unsaturated, comprising at least four carbon atoms, as lipophilic moiety, and - a hydrophilic moiety, - an aliphatic chain, saturated or unsaturated, comprising at least four carbon atoms, as lipophilic moiety, and - a hydrophilic moiety,
A high-strength cold-rolled steel sheet consisting of: by mass%, C: 0.10% to 0.40%; Mn: 0.5% to 4.0%; Si: 0.005% to 2.5%; Al: 0.005% to 2.5%; Cr: 0% to 1.0%; and optionally one or more of Mo: up to 0.3%; Ni: up to 5%; Cu: up to 5%; B: up to 0.003%; Nb: up to 0.1%; Ti: up to 0.2% V: up to 1.0%; W: up to 1.0% Ca: 0.05% or less; Mg: 0.05% or less; Zr: 0.05% or less; REM: 0.05% or less and a balance of iron and inevitable impurities, wherein the amount of P is limited to 0.05% or less, the amount of S is limited to 0.02% or less, the amount of N is limited to 0.006% or less, the microstructure thereof includes 2% to 30% of retained austenite by area percentage, martensite is limited to 20 % or less by area percentage in the microstructure, the average particle size of cementite in the microstructure is 0.01 μm to 1 μm, and 30% to 100% of the cementite has an aspect ratio of 1 to 3. C: 0.10% to 0.40%; Mn: 0.5% to 4.0%; Si: 0.005% to 2.5%; Al: 0.005% to 2.5%; Cr: 0% to 1.0%; and optionally one or more of Mo: up to 0.3%; Ni: up to 5%; Cu: up to 5%; B: up to 0.003%; Nb: up to 0.1%; Ti: up to 0.2% V: up to 1.0%; W: up to 1.0% Ca: 0.05% or less; Mg: 0.05% or less; Zr: 0.05% or less; REM: 0.05% or less
A base station apparatus (130, 220) used in a cellular communication network, the base station apparatus (130, 220) comprising: at least one wireless transceiver; and at least one processor configured to: transmit Vehicle-to-Everything, V2X, support information via the at least one wireless transceiver, the V2X support information indicating that a V2X Service is supported by a serving network including the base station apparatus (130, 220); and in response to receiving V2X terminal information transmitted from a first radio terminal (100, 120) that has received the V2X support information, transmit V2X configuration to the first radio terminal (100, 120), characterized in that the V2X support information indicates a list of V2X service areas in which the V2X service is available, and a radio resource pool per V2X service area to be used for autonomous resource selection for the V2X service by each of a plurality of radio terminals including the first radio terminal (100, 120). at least one wireless transceiver; and at least one processor configured to: transmit Vehicle-to-Everything, V2X, support information via the at least one wireless transceiver, the V2X support information indicating that a V2X Service is supported by a serving network including the base station apparatus (130, 220); and in response to receiving V2X terminal information transmitted from a first radio terminal (100, 120) that has received the V2X support information, transmit V2X configuration to the first radio terminal (100, 120), transmit Vehicle-to-Everything, V2X, support information via the at least one wireless transceiver, the V2X support information indicating that a V2X Service is supported by a serving network including the base station apparatus (130, 220); and in response to receiving V2X terminal information transmitted from a first radio terminal (100, 120) that has received the V2X support information, transmit V2X configuration to the first radio terminal (100, 120), characterized in that the V2X support information indicates a list of V2X service areas in which the V2X service is available, and a radio resource pool per V2X service area to be used for autonomous resource selection for the V2X service by each of a plurality of radio terminals including the first radio terminal (100, 120).
An intravascular blood filter system, comprising: an expandable proximal filter adapted to be collapsed within a proximal sheath; a distal articulatable sheath (48, 122, 132) disposed distal to the proximal sheath, the distal articulatable sheath comprising a proximal section (49, 124, 131) and a distal section (51, 126, 133); an expandable distal filter adapted to be collapsed within the distal articulatable sheath; and characterised by a pull wire secured to the distal articulatable sheath; wherein the distal articulatable sheath is adapted to be independently deflected relative to both the proximal sheath and the proximal filter upon tension of the pull wire, such that the proximal section articulates first to initialize a first curve that is concave in a first direction and the distal section articulates to form a second curve that is concave in a second direction. an expandable proximal filter adapted to be collapsed within a proximal sheath; a distal articulatable sheath (48, 122, 132) disposed distal to the proximal sheath, the distal articulatable sheath comprising a proximal section (49, 124, 131) and a distal section (51, 126, 133); an expandable distal filter adapted to be collapsed within the distal articulatable sheath; and characterised by a pull wire secured to the distal articulatable sheath; wherein the distal articulatable sheath is adapted to be independently deflected relative to both the proximal sheath and the proximal filter upon tension of the pull wire, such that the proximal section articulates first to initialize a first curve that is concave in a first direction and the distal section articulates to form a second curve that is concave in a second direction.
Antenna system (2,3) designed to be installed on board a satellite or space platform and comprising a first antenna (21,31) and a second antenna (22,32), wherein said second antenna (22,32) is coaxially aligned with, and is arranged on top of, the first antenna (21,31); wherein the first antenna (21, 31) is a first double-reflector antenna comprising a first main reflector (211,311) and a first sub-reflector (212,312) arranged coaxially with, and in front of, one another; the first antenna (21,31) further comprising a first coaxial feeder, that is arranged coaxially with the first main reflector (211,311), the first sub-reflector (212,312) and the second antenna (22,32), and that includes an outer conductor (23,33) and a first inner conductor (24,34) which are arranged coaxially with, and spaced apart from, one another; wherein the first coaxial feeder is configured to be fed with first downlink microwave signals to be transmitted by the first antenna (21,31), and to radiate said first downlink microwave signals through a first feed aperture (232,332), that is located centrally with respect to the first main reflector (211,311) and that is configured to radiate onto the first sub-reflector (212,312); wherein the first inner conductor (24,34) protrudes coaxially and outwardly from the first feed aperture (232,332) up to the first sub-reflector (212,312) and is rigidly coupled to said first sub-reflector (212,312) thereby supporting said first sub-reflector (212,312); wherein a transmission line is provided in the first inner conductor (24,34) to feed the second antenna (22,32) with second downlink microwave signals to be transmitted by said second antenna (22, 32); wherein the second antenna (22, 32) is a second double-reflector antenna comprising a second main reflector (221,321) and a second sub-reflector (222,322) arranged coaxially with, and in front of, one another; characterized in that the second main reflector (221,321) is arranged on top of the first sub-reflector (212,312); wherein the first antenna (21,31) is configured to operate in X band for telemetry, tracking and command, thereby resulting in the first downlink microwave signals being telemetry, tracking and command downlink signals having frequencies comprised within the X band; wherein the first coaxial feeder is further configured to receive through the first feed aperture (232,332), and to allow propagation of, uplink microwave signals that are telemetry, tracking and command uplink signals received by the first antenna (21,31) and having frequencies comprised within the X band; and wherein the second antenna (22,32) is configured to operate in K band for data downlink, thereby resulting in the second downlink microwave signals being data downlink signals having frequencies comprised within the K band.
A parcel terminal which comprises a body comprising a base frame, a roof frame and side panels; a main boom comprising a loader, a set-up of multitude of shelves; a console comprising a door opening/slot; a door; a user interface; and a scanner, wherein - the shelves comprise rails having removable parcel containers added into the rails of the shelves, and - the console comprises a parcel container base (9.1) with attached weighing elements added to the bottom part of the console, optical measuring light curtains, and at least one measuring device, characterized in that - the body of the parcel terminal is tower-shaped, - the main boom is fastened to a rotating base that has been added to the base frame, - the set-up of multitude of shelves is circular and arranged around the rotating base, - the console comprises a motion sensor attached to the console outside wall, - the console comprises a parcel position photographing camera added into the upper part of the console, - the optical measuring light curtains are added to the rear part of the console, - the at least one measuring device is attached into at least one corner of the console, - the console comprises reflective markers added to the inside walls of the console, - and wherein the parcel terminal is configured to weigh a received parcel by means of the weighing elements and to determine the movement speed for the main boom and the loader based on the weight of the parcel so that a slower speed is determined when the weight of the parcel exceeds a predetermined weight. - the shelves comprise rails having removable parcel containers added into the rails of the shelves, and - the console comprises a parcel container base (9.1) with attached weighing elements added to the bottom part of the console, optical measuring light curtains, and at least one measuring device, - the body of the parcel terminal is tower-shaped, - the main boom is fastened to a rotating base that has been added to the base frame, - the set-up of multitude of shelves is circular and arranged around the rotating base, - the console comprises a motion sensor attached to the console outside wall, - the console comprises a parcel position photographing camera added into the upper part of the console, - the optical measuring light curtains are added to the rear part of the console, - the at least one measuring device is attached into at least one corner of the console, - the console comprises reflective markers added to the inside walls of the console, - and wherein the parcel terminal is configured to weigh a received parcel by means of the weighing elements and to determine the movement speed for the main boom and the loader based on the weight of the parcel so that a slower speed is determined when the weight of the parcel exceeds a predetermined weight.
Use of a connector plate for a vacuum cleaner dust container, the connector plate comprising an opening, wherein the connector plate correctly positions the opening within a vacuum cleaner by being slid into a holder of the vacuum cleaner, the connector plate comprising a central portion surrounding said opening, and an extending portion projecting from the central portion in the plane thereof, whereby the extending portion, by being slid into said holder, is bent in a first direction at a first section, characterized in that the extending portion, by being slid into said holder, is bent in a second direction being opposite to the first direction at a second section, wherein the extending portion is leading in the direction of insertion and with the central portion as a trailing part, when slid into said holder in the vacuum cleaner. whereby the extending portion, by being slid into said holder, is bent in a first direction at a first section, characterized in that the extending portion, by being slid into said holder, is bent in a second direction being opposite to the first direction at a second section, wherein the extending portion is leading in the direction of insertion and with the central portion as a trailing part, when slid into said holder in the vacuum cleaner.
A quantum dot colloid, comprising a population of quantum dots disposed in a host matrix, wherein the dots are of a size distribution selected to photoluminesce light of a spectral distribution of wavelengths characteristic of a selected color when the host matrix is irradiated with light from a primary source whose wavelength is shorter than the longest wavelength of said spectral distribution, wherein the host matrix is a polymeric matrix, each quantum dot having a coating which enables them to be dispersed in the host matrix without flocculation, characterized in that the coating comprises an oligomer related to a polymer of the polymeric matrix with a Lewis base at the end of the oligomer which is bound to the quantum dot, wherein the oligomer related to said polymer is a component oligomer of the polymer.
Teat for connection to a receiving unit (2, 3) of a drink container, having a main body and, adjoining the main body and tapered relative to the main body, a mouthpiece with at least one suction opening and a free end, wherein the teat has a first connector element for connection to the receiving unit (2, 3), and a second connector element for connection to the receiving unit (2, 3), and a suction channel, wherein the suction channel extends within the mouthpiece, opens via a first end into the suction opening and is directed via a second end towards the main body, and wherein this second end forms the first connector element for leaktight connection to the receiving unit (2, 3), wherein the main body is designed such that it can be turned back towards the free end of the mouthpiece, and wherein the teat is designed such that it can be turned back at at least a second location, characterized in that the teat has a stable basic state, a first stable turned-back state and at least a second stable turned-back state, wherein the at least second stable state differs in outward appearance from the first stable state and from the basic state, so that the teat can be better cleaned.