mhurhangee/ep-ind-claims huggingface dataset:
A first radio station configured to operate a first cell, comprising: communication control means for communicating with a radio terminal configured to perform dual connectivity using the first cell and a second cell operated by a second radio station, and for supporting a split bearer which is a bearer split over the first radio station and the second radio station for using resource of the first radio station and resource of the second radio station; radio communication means for transmitting, to the radio terminal via the first cell, a Radio Resource Control, RRC, message including at least configuration information related to a first Radio Link Control, RLC, bearer corresponding to a first part of the split bearer and configuration information related to a second RLC bearer corresponding to a second part of the split bearer, wherein the first part is allocated to the first cell and the second part is allocated to the second cell; communication means for sending configuration information of the split bearer including at least a radio bearer identity of the split bearer to the second radio station, wherein the configuration information related to the first RLC bearer includes the radio bearer identity of the split bearer, and the configuration information related to the second RLC bearer includes a radio bearer identity of the split bearer whose value is same as the radio bearer identity of the split bearer included in the configuration information related to the first RLC bearer. communication control means for communicating with a radio terminal configured to perform dual connectivity using the first cell and a second cell operated by a second radio station, and for supporting a split bearer which is a bearer split over the first radio station and the second radio station for using resource of the first radio station and resource of the second radio station; radio communication means for transmitting, to the radio terminal via the first cell, a Radio Resource Control, RRC, message including at least configuration information related to a first Radio Link Control, RLC, bearer corresponding to a first part of the split bearer and configuration information related to a second RLC bearer corresponding to a second part of the split bearer, wherein the first part is allocated to the first cell and the second part is allocated to the second cell; communication means for sending configuration information of the split bearer including at least a radio bearer identity of the split bearer to the second radio station, wherein the configuration information related to the first RLC bearer includes the radio bearer identity of the split bearer, and the configuration information related to the second RLC bearer includes a radio bearer identity of the split bearer whose value is same as the radio bearer identity of the split bearer included in the configuration information related to the first RLC bearer.
A food storage appliance, comprising: a housing containing operative components of the food storage appliance; a first heat sealing element on a lower portion of the housing configured to heat seal a first end of a section of food storage container material forming a food storage container unsealed at a second end; a vacuum chamber disposed in an upper portion of the housing connected to a vacuum- motor-assembly; a second heat sealing element in the upper portion of the housing disposed adjacent to the vacuum chamber configured to heat seal the second end of the food storage container after being inserted into the vacuum chamber and being evacuated by: suction from the vacuum-motor assembly; and an elongated cavity formed in the housing for receiving a roll of food storage container material for supplying a continuous sheet of food storage container material that can be unrolled from the roll in sections for forming multiple food storage containers that are to be heat sealed by the first heat sealing element on the first end prior to being cut from the roll and heat sealed by the second heat sealing clement on the second end after being cut from the roll; characterized in that the cavity is open on at least one end for insertion of the roll of food storage container material, the cavity being formed by: a lower housing assembly having a substantially planar horizontal portion for placement on a surface and a substantially planar vertical portion attached perpendicular wise at a lower end to the horizontal portion; and an upper housing attached cantilever fashion to an upper end of the vertical portion and extending over the cavity. a housing containing operative components of the food storage appliance; a first heat sealing element on a lower portion of the housing configured to heat seal a first end of a section of food storage container material forming a food storage container unsealed at a second end; a vacuum chamber disposed in an upper portion of the housing connected to a vacuum- motor-assembly; a second heat sealing element in the upper portion of the housing disposed adjacent to the vacuum chamber configured to heat seal the second end of the food storage container after being inserted into the vacuum chamber and being evacuated by: suction from the vacuum-motor assembly; and an elongated cavity formed in the housing for receiving a roll of food storage container material for supplying a continuous sheet of food storage container material that can be unrolled from the roll in sections for forming multiple food storage containers that are to be heat sealed by the first heat sealing element on the first end prior to being cut from the roll and heat sealed by the second heat sealing clement on the second end after being cut from the roll; a lower housing assembly having a substantially planar horizontal portion for placement on a surface and a substantially planar vertical portion attached perpendicular wise at a lower end to the horizontal portion; and an upper housing attached cantilever fashion to an upper end of the vertical portion and extending over the cavity.
Method for producing an austempered steel, characterized in that it comprises the steps of subjecting a steel alloy having a silicon content of 1.5 to 4.4 weight percent and a carbon content of 0.3 to 0.8 weight percent to continuous cooling followed by annealing, where the continuous cooling begins from a fully austenitic temperature that is achieved as a result of casting of one or more steel components, or hot forging or hot rolling of one or more semi-finished steel products, whereby the cooling rate during said continuous cooling is initially sufficiently fast to prevent predominant formation of proeutectoid ferrite or pearlite, while subsequently at intermediate temperatures, the cooling rate is sufficiently slow to allow a transformation of the austenite to mainly ausferrite during cooling, before the austenite being enriched in carbon during growth of acicular ferrite has reached a temperature below its continuously decreasing M s temperature, thereby limiting the amount of martensite being formed if cooled to ambient temperature or lower, and where the annealing is able to complete the transformation of carbon enriched austenite to ausferrite and to temper any martensite previously formed, said method resulting in the production of one or more continuously cooled and annealed austempered steel components or semi-finished products having mainly an ausferritic microstructure.
A flexible catheter tip (20, 120) having a proximal end and a distal end, comprising: a spring element (130, 230) that tapers distally; wherein said spring element (130, 230) is a wire coil having pitch space between 2 or more coils in a first region and tightly packed coils in a second region, characterized in that said second region is distal of said first region.
A method for predicting lean blow-outs (LBOs) in a gas turbine engine, said method comprising: extracting an LBO tone, a cold tone and a hot tone in pressure signals representative of pressure within each of a plurality of monitored combustor cans and determining RMS values for each said tone; tracking a frequency of a hot tone in each monitored can using a cumulative probability density function of a normal distribution and a mean and a variance selected to achieve a desired probability of LBO for a given RMS value of the LBO tone; utilizing the extracted tones and the tracked frequency to determine a probability of an LBO; and characterized by refining the determined probability of an LBO using an RMS ratio (α) that reflects the relative change in the LBO tone, the cold tone and the hot tone and the frequency shift (β) of the hot tone. extracting an LBO tone, a cold tone and a hot tone in pressure signals representative of pressure within each of a plurality of monitored combustor cans and determining RMS values for each said tone; tracking a frequency of a hot tone in each monitored can using a cumulative probability density function of a normal distribution and a mean and a variance selected to achieve a desired probability of LBO for a given RMS value of the LBO tone; utilizing the extracted tones and the tracked frequency to determine a probability of an LBO; and characterized by refining the determined probability of an LBO using an RMS ratio (α) that reflects the relative change in the LBO tone, the cold tone and the hot tone and the frequency shift (β) of the hot tone.
Heating device for a blow molding machine, the heating device comprising a heating element for radiating heat radiation for heating of preforms (3; 3A; 3B), a bottom reflector being movable relative to a counter reflector arranged opposite to the heating element and being for reflection of heat radiation, radiated by the heating element, in direction of the preforms (3; 3A; 3B), and a setting device for setting a position (L A + BM, L B + BM) of the bottom reflector relative to the counter reflector.
Electronic input interface, comprising: - a dielectric base, one face of which is accessible to the user, and - a capacitive detector which is located at a distance from said face and which comprises at least two distinct antennas (14, 15) and an electronic circuit, which electronic circuit is connected to said two antennas (14, 15) and is suitable for producing an object detection signal, at least part of said electronic circuit, the dielectric base and the two antennas (14, 15) together forming a moulded interconnection device. - a dielectric base, one face of which is accessible to the user, and - a capacitive detector which is located at a distance from said face and which comprises at least two distinct antennas (14, 15) and an electronic circuit, which electronic circuit is connected to said two antennas (14, 15) and is suitable for producing an object detection signal,
Hemodialysis apparatus having a dialysis liquid system in which a hemodialysis liquid is produced, the dialysis liquid system comprising: a dialysis water valve through which the dialysis water can flow from a dialysis water source into a main conduit, a dialysis liquid pump which pumps the dialysis liquid from the main conduit to a dialyzer, and a concentrate introduction unit (170, 171) with a concentrate liquid container (40, 50), a concentrate liquid (41, 51) in the container (40, 50) and a concentrate liquid inflow (46, 56) where an introduction conduit (47, 57) from the concentrate liquid container (40, 50) opens into the main conduit, wherein the concentrate introduction unit (170, 171) comprises a switchable concentrate valve (42, 52), and wherein the concentrate introduction unit (170, 171) comprises no pump, characterized in that the dialysis liquid system comprises a separate dosing pump fluidically between the concentrate liquid inflow (46, 56) and the dialysis liquid pump. a dialysis water valve through which the dialysis water can flow from a dialysis water source into a main conduit, a dialysis liquid pump which pumps the dialysis liquid from the main conduit to a dialyzer, and a concentrate introduction unit (170, 171) with a concentrate liquid container (40, 50), a concentrate liquid (41, 51) in the container (40, 50) and a concentrate liquid inflow (46, 56) where an introduction conduit (47, 57) from the concentrate liquid container (40, 50) opens into the main conduit, wherein the concentrate introduction unit (170, 171) comprises a switchable concentrate valve (42, 52), and wherein the concentrate introduction unit (170, 171) comprises no pump, characterized in that the dialysis liquid system comprises a separate dosing pump fluidically between the concentrate liquid inflow (46, 56) and the dialysis liquid pump.
A method comprising: receiving, by a hub and from a first terminal, selected forward channel reception level estimations determined by the first terminal; determining, by the hub and based on the selected forward channel reception level estimations, a fade rate corresponding to a rate at which a forward channel reception level at the first terminal changes; determining a margin associated with the first terminal based on the fade rate and one or more of: a) a round trip delay between the hub and the first terminal, b) an interval between the selected forward channel reception level estimations, or c) a preconfigured maximal link fade rate; and selecting, based on the margin associated with the first terminal, a Modulation and Coding, MODCOD, for a transmission to the first terminal. receiving, by a hub and from a first terminal, selected forward channel reception level estimations determined by the first terminal; determining, by the hub and based on the selected forward channel reception level estimations, a fade rate corresponding to a rate at which a forward channel reception level at the first terminal changes; determining a margin associated with the first terminal based on the fade rate and one or more of: a) a round trip delay between the hub and the first terminal, b) an interval between the selected forward channel reception level estimations, or c) a preconfigured maximal link fade rate; and selecting, based on the margin associated with the first terminal, a Modulation and Coding, MODCOD, for a transmission to the first terminal.
Body front-end structure for a two-track vehicle, the structure comprising an A-pillar from which an upper wheel housing side member projects toward the front of the vehicle in the vehicle longitudinal direction (x) and from which a lower body side member, which is offset toward the inside of the vehicle with respect to the upper wheel housing side member, projects toward the front of the vehicle in the vehicle longitudinal direction (x), with a transverse assembly extending in the vehicle transverse direction (y), and a spring strut dome being arranged in an inner corner region between the transverse assembly and the upper wheel housing side member, which dome is adjoined in the vehicle longitudinal direction (x) toward the front of the vehicle and in the vehicle vertical direction (z) toward the bottom of the vehicle by the wheel housing panel which delimits the wheel housing interior and which connects the lower body side member to the upper wheel housing side member, in a head-on crash, in particular with a slight lateral overlap, the spring strut dome being loaded with a crash force (F c) in the vehicle longitudinal direction (x), characterized in that the body front-end structure has a panel tension strip which connects the spring strut dome to the lower body side member in a force-transmitting manner, and in that, in the event of a head-on crash, the panel tension strip provides a load path via which a tensile force (F x) counteracting the crash force (F c) acts on the spring strut dome in order to avoid a crash-induced displacement of the spring strut dome toward the rear of the vehicle.
An antenna, comprising: a wave-propagating structure; and a plurality of subwavelength patch elements distributed along the wave-propagating structure with inter-element spacings substantially less than a free-space wavelength corresponding to an operating frequency of the antenna, where the plurality of subwavelength patch elements have a plurality of adjustable individual electromagnetic responses to a guided wave TE10 mode of the wave-propagating structure, and the plurality of adjustable individual electromagnetic responses provide an adjustable radiation field of the antenna; wherein the wave-propagating structure includes one or more conducting surfaces, and the plurality of subwavelength patch elements correspond to a plurality of conducting patches respectively positioned at least partially above a respective plurality of irises in the conducting surfaces; characterised in that each of the plurality of conducting patches is a patch with two resonant modes having substantially mutually orthogonal polarization states, and the plurality of irises and conductive patches are positioned between a center axis and an edge of the wave-propagating structure, wherein the plurality of conducting patches is configured to provide a plurality of elliptically-polarized radiation fields responsive to iris-intermediated H-field couplings between the conducting patches and the guided wave TE10 mode propagating in the wave-propagating structure. a wave-propagating structure; and a plurality of subwavelength patch elements distributed along the wave-propagating structure with inter-element spacings substantially less than a free-space wavelength corresponding to an operating frequency of the antenna, where the plurality of subwavelength patch elements have a plurality of adjustable individual electromagnetic responses to a guided wave TE10 mode of the wave-propagating structure, and the plurality of adjustable individual electromagnetic responses provide an adjustable radiation field of the antenna; wherein the wave-propagating structure includes one or more conducting surfaces, and the plurality of subwavelength patch elements correspond to a plurality of conducting patches respectively positioned at least partially above a respective plurality of irises in the conducting surfaces; characterised in that each of the plurality of conducting patches is a patch with two resonant modes having substantially mutually orthogonal polarization states, and the plurality of irises and conductive patches are positioned between a center axis and an edge of the wave-propagating structure, wherein the plurality of conducting patches is configured to provide a plurality of elliptically-polarized radiation fields responsive to iris-intermediated H-field couplings between the conducting patches and the guided wave TE10 mode propagating in the wave-propagating structure.
A rubber composition comprising: a rubber component comprising 70% by mass or more in total of at least one selected from the group consisting of a butyl rubber and a halogenated butyl rubber; a terpene-based resin having a glass-transition temperature of 60°C or lower; and 6 to 30 parts by mass in total of a non-terpene resin, other than the terpene-based resin having the glass-transition temperature of 60°C or lower, based on 100 parts by mass of the rubber component, the non-terpene resin having a glass-transition temperature of 50°C or higher, wherein the air permeability coefficient of the rubber composition calculated from the air permeation amount is 4.6 × 10 -11 cm 3 ·cm/(cm 2 ·s·Pa) or less, where the air permeation amount is an air permeation amount measured in accordance with a gas permeability test method using a gas chromatographic method, described in JIS K7126-1: 2006.
A device for collecting fluorescent light emitted by particles in a medium, comprising: a substrate having a chamber for holding a medium including particles being capable of emitting fluorescent light, a first waveguide arranged at the substrate and extending into the chamber, wherein the first waveguide is arranged to receive excitation light from a light source and guide the excitation light through the chamber along a first direction of the first waveguide, and to collect fluorescent light emitted by the particles following an excitation of the particles by the excitation light, and a coupler arranged at the first waveguide, characterized in that the coupler is a directional coupler and includes a second waveguide arranged to output collected fluorescent light at one of its ends, wherein the second waveguide is arranged in relation to the first waveguide such that collected fluorescent light travelling in a direction opposite to the first direction is coupled out from the first waveguide directly into the second waveguide and to output collected fluorescent light at a first end, and excitation light, coupled into the second waveguide from the first waveguide, at a second end. a substrate having a chamber for holding a medium including particles being capable of emitting fluorescent light, a first waveguide arranged at the substrate and extending into the chamber, wherein the first waveguide is arranged to receive excitation light from a light source and guide the excitation light through the chamber along a first direction of the first waveguide, and to collect fluorescent light emitted by the particles following an excitation of the particles by the excitation light, and a coupler arranged at the first waveguide, characterized in that the coupler is a directional coupler and includes a second waveguide arranged to output collected fluorescent light at one of its ends, wherein the second waveguide is arranged in relation to the first waveguide such that collected fluorescent light travelling in a direction opposite to the first direction is coupled out from the first waveguide directly into the second waveguide and to output collected fluorescent light at a first end, and excitation light, coupled into the second waveguide from the first waveguide, at a second end.