mhurhangee/ep-ind-claims huggingface dataset:
A method in a base station serving a first cell in a cellular network, for supporting radio resource management in the cellular network, the method comprising: - receiving an indication of uplink interference experienced in a neighbouring second cell, - identifying interfered bandwidth resources on which said uplink interference is experienced in the neighbouring second cell based on the received indication of uplink interference, - detecting that the interfered bandwidth resources coincide with bandwidth resources that have been allocated to User Equipments, UEs, in the first cell, the method being characterized by: - when the interfered bandwidth resources coincide with bandwidth resources that have been allocated to cell edge UEs in the first cell, allocating bandwidth resources separate from the interfered bandwidth resources to the cell edge UEs, and - when the interfered bandwidth resources coincide with bandwidth resources that have been allocated to cell centre UEs in the first cell, applying power control for uplink transmissions made by the cell centre UEs on the interfered bandwidth resources. - receiving an indication of uplink interference experienced in a neighbouring second cell, - identifying interfered bandwidth resources on which said uplink interference is experienced in the neighbouring second cell based on the received indication of uplink interference, - detecting that the interfered bandwidth resources coincide with bandwidth resources that have been allocated to User Equipments, UEs, in the first cell, - when the interfered bandwidth resources coincide with bandwidth resources that have been allocated to cell edge UEs in the first cell, allocating bandwidth resources separate from the interfered bandwidth resources to the cell edge UEs, and - when the interfered bandwidth resources coincide with bandwidth resources that have been allocated to cell centre UEs in the first cell, applying power control for uplink transmissions made by the cell centre UEs on the interfered bandwidth resources.
A battery system for a motor vehicle, wherein the battery system comprises a first housing component and a second housing component, wherein the first housing component comprises a first side wall and a second side wall located opposite the first side wall, and wherein the battery system contains cells which can be fastened to one or more cell holders within the first housing component, wherein the cell holder or holders can be fastened to the base surface and the first side wall, or the cell holder or holders can be connected to a subframe, wherein the subframe can be fastened to the base surface and first side wall, wherein the first side wall of the first housing component is designed to be higher with respect to a base surface of the first housing component than a second side wall located opposite the first side wall, wherein the first side wall and the base surface of the first housing component form a substantially right angle, characterised in that the second side wall has an incline, so that the second side wall and the base surface enclose an angle greater than 90°.
Assembly including: - a pipe for transporting liquid, said pipe having a longitudinal axis and being * flexible, * deformable between a circular inner section and a flat inner section which may be zero, * foldable on itself longitudinally and, - a placing device at a site of the said pipe; the placing device having a longitudinal axis and comprising a drum rotating around which is wound a first section of pipe, characterized in that: - the first section of pipe is wound around the drum in a flattened state of its section, following a flattened ribbon, - and the placing device is further comprised of: * a motorized reel for unwinding the pipe, * means of positioning to position one opposite the other, in a consistent state less flattened than their section on the drum, the first section of the pipe emerges from the drum and a second portion situated downstream from the first in relation to the laying direction of the pipe * assembly means (21, 22) for a watertight connection between the first and second pipe sections in the joined state and obtain said elongated pipe, * and, optionally, tensioning means for transmitting to the elongated pipe an axial forward tension downstream and/or a backward tension upstream. - a pipe for transporting liquid, said pipe having a longitudinal axis and being * flexible, * deformable between a circular inner section and a flat inner section which may be zero, * foldable on itself longitudinally and, * flexible, * deformable between a circular inner section and a flat inner section which may be zero, * foldable on itself longitudinally and, - a placing device at a site of the said pipe; the placing device having a longitudinal axis and comprising a drum rotating around which is wound a first section of pipe, - the first section of pipe is wound around the drum in a flattened state of its section, following a flattened ribbon, - and the placing device is further comprised of: * a motorized reel for unwinding the pipe, * means of positioning to position one opposite the other, in a consistent state less flattened than their section on the drum, the first section of the pipe emerges from the drum and a second portion situated downstream from the first in relation to the laying direction of the pipe * assembly means (21, 22) for a watertight connection between the first and second pipe sections in the joined state and obtain said elongated pipe, * and, optionally, tensioning means for transmitting to the elongated pipe an axial forward tension downstream and/or a backward tension upstream. * a motorized reel for unwinding the pipe, * means of positioning to position one opposite the other, in a consistent state less flattened than their section on the drum, the first section of the pipe emerges from the drum and a second portion situated downstream from the first in relation to the laying direction of the pipe * assembly means (21, 22) for a watertight connection between the first and second pipe sections in the joined state and obtain said elongated pipe, * and, optionally, tensioning means for transmitting to the elongated pipe an axial forward tension downstream and/or a backward tension upstream.
A flow-through dispersion device for the dispersion of aggregates, the device comprising an upstream inlet at one extremity of a conduit, at least two obstacles having opposing surfaces, said obstacles being a first or upstream inlet obstacle disposed within the conduit, said upstream inlet obstacle being perforated by at least one traversing hole and obstructing from about 50% to about 99.9% of the internal cross-sectional area of the conduit, a second or downstream outlet obstacle disposed within the conduit and a downstream outlet obstacle being perforated by at least one traversing hole and obstructing from about 50% to about 99.9% of the internal cross-sectional area of the conduit, wherein the longitudinal axis of any traversing hole of either obstacle does not align with the longitudinal axis of any other hole of a preceding or succeeding obstacle, a turbulence chamber defined by the opposing surfaces of the first and second obstacles and the inner wall of the conduit between said obstacles, and wherein the distance between two successive obstacles is from about 0.1 to about 10 times the diameter of the smallest hole of either of two successive obstacles, and a downstream outlet at the opposing extremity of the conduit; and wherein the inlet to the device conduit and the upstream inlet obstacle form a first portion of the device, and the outlet to the device conduit and the downstream outlet obstacle form a second portion of the device and wherein the first and second portions are separable, wherein the device further comprises a spacer seal; further wherein the conduit in each of the first and second portions comprise a longitudinal lumen, whereby the first and second portions may be juxtaposed and secured together such that a turbulence chamber is defined by the at least two obstacles and at least an inner wall of the spacer seal.
An apparatus comprising a base comprising a cavity disposed in the base, a heater disposed immediately adjacent a surface of the cavity, a temperature sensor mounted in the base and a control system electrically connected to the heater and the temperature sensor, characterized in that the apparatus is for treating slides in a slide rack and further comprises a tank removably supportable in the cavity with a tank surface immediately adjacent the heater, the tank adapted to receive a liquid and the slide rack with the slides disposed in the liquid, the temperature sensor being operable to provide a feedback signal representing a temperature of the liquid in the tank, and in that the control system comprises user input/output operable to select an operating mode for heating the liquid, a longer time constant filter responsive to temperature samples of the liquid and producing a first average temperature value, and a shorter time constant filter responsive to temperature samples of the liquid and producing a second average temperature value, the control system determining a temperature of the liquid being about equal to the liquid's boiling temperature in response to a difference between the first average temperature value and the second average temperature value being substantially equal to a predetermined value.
An injectable composition for use in tissue construction and generation in a mammal, wherein said composition comprises (i) biocompatible, hydrophilic and non-toxic microspheres associated with stem cells other than human embryonic stem cells, and (ii) a biocompatible carrier, wherein said composition is injectible through needles of 18 to 26 gauge, said microspheres are not capable of being displaced, or eliminated by the lymphatic system, and wherein when viewing any cross-section of each microsphere, the difference between the average major diameter and the average minor diameter is less than 20%.
A method of continuously manufacturing a cured membrane, the method comprising: mixing rubber, filler, oil and curative within a mixing extruder to form a vulcanizable rubber composition; subjecting the vulcanizable rubber composition to a reduced pressure by applying a vacuum; extruding the vulcanizable rubber composition to form a continuous extrudate; calendaring the extrudate to form a green membrane; and curing the green membrane to form a cured membrane, where said step of curing is devoid of elevated pressures. mixing rubber, filler, oil and curative within a mixing extruder to form a vulcanizable rubber composition; subjecting the vulcanizable rubber composition to a reduced pressure by applying a vacuum; extruding the vulcanizable rubber composition to form a continuous extrudate; calendaring the extrudate to form a green membrane; and curing the green membrane to form a cured membrane, where said step of curing is devoid of elevated pressures.
A motor control method which repeatedly performs the steps of: (a) detecting, by a position detection sensor (Hu, Hv, Hw), that a rotor included in a motor is positioned at K, K>1, predetermined electrical angles; and (b) updating a voltage vector to be given to said motor, said updating being triggered by said detection (S11 to S16), characterized by said motor control method further performing the step of (c) widening the intervals of updating the voltage vector at step (b) relative to one cycle of rotation of said rotor, by changing the number of said predetermined electrical angles into M, K>M≥1, (S12, ST3, ST4); wherein said step (c) is performed (St3, ST4) when a change of a frequency of said rotor is higher than a specified value. (a) detecting, by a position detection sensor (Hu, Hv, Hw), that a rotor included in a motor is positioned at K, K>1, predetermined electrical angles; and (b) updating a voltage vector to be given to said motor, said updating being triggered by said detection (S11 to S16), characterized by said motor control method further performing the step of (c) widening the intervals of updating the voltage vector at step (b) relative to one cycle of rotation of said rotor, by changing the number of said predetermined electrical angles into M, K>M≥1, (S12, ST3, ST4); wherein said step (c) is performed (St3, ST4) when a change of a frequency of said rotor is higher than a specified value.
A complex cycle gas turbine engine for an aircraft with hydrogen fuel supply, comprising, in fluid flow series, a core gas turbine and a first recuperator for heating hydrogen fuel prior to combustion by turbine exhaust products, wherein the core gas turbine comprises: a low-pressure spool having a low-pressure compressor driven by a low-pressure turbine; a high-pressure spool having a high-pressure compressor driven by a high-pressure turbine; and an intercooler between the low-pressure compressor and the high-pressure compressor for cooling low-pressure compressor discharge air by the hydrogen fuel; characterised in that: the engine further comprises a second recuperator for further heating hydrogen fuel received from the intercooler, the second recuperator being positioned between the low-pressure turbine and the first recuperator; and wherein the recuperators (701, 1002) and intercooler are arranged such that fuel flows through the first recuperator, intercooler and second recuperator in fluid flow series. a low-pressure spool having a low-pressure compressor driven by a low-pressure turbine; a high-pressure spool having a high-pressure compressor driven by a high-pressure turbine; and an intercooler between the low-pressure compressor and the high-pressure compressor for cooling low-pressure compressor discharge air by the hydrogen fuel; characterised in that: the engine further comprises a second recuperator for further heating hydrogen fuel received from the intercooler, the second recuperator being positioned between the low-pressure turbine and the first recuperator; and wherein the recuperators (701, 1002) and intercooler are arranged such that fuel flows through the first recuperator, intercooler and second recuperator in fluid flow series.
An image forming apparatus comprising: a built-in rotary driving member (11, 12) including a shaft; a developing device including a case and the built-in rotary driving member (11, 12), and detachably attachable to an image forming apparatus body; a developer driving part to drive the built-in rotary driving member (11, 12) disposed at an end in a shaft direction of the rotary driving member (11, 12); a driving part duct enveloping the developing driving part 30; a developer case surface duct formed along a surface parallel to the shaft direction of the rotary driving member (11, 12); and an airflow generating means (40 or 43) to blow air from either the driving part duct or the developer case surface duct. a built-in rotary driving member (11, 12) including a shaft; a developing device including a case and the built-in rotary driving member (11, 12), and detachably attachable to an image forming apparatus body; a developer driving part to drive the built-in rotary driving member (11, 12) disposed at an end in a shaft direction of the rotary driving member (11, 12); a driving part duct enveloping the developing driving part 30; a developer case surface duct formed along a surface parallel to the shaft direction of the rotary driving member (11, 12); and an airflow generating means (40 or 43) to blow air from either the driving part duct or the developer case surface duct.
Composition comprising: (a) at least one extract of a plant of the genus Brassica, and (b) more than 1% (Gew./Gew.) phlorizin, wherein the plant of the genus Brassica is kale. (a) at least one extract of a plant of the genus Brassica, and (b) more than 1% (Gew./Gew.) phlorizin,
A method of forming a bonded abrasive body comprising: forming a mixture including a bond material and abrasive particles comprising microcrystalline alumina; shaping the mixture to form a green body; and sintering the green body to form a bonded abrasive body including a bond material comprising a single phase vitreous bond material, wherein the bonded abrasive body comprises a strength ratio (MOR/MOE) of at least about 0.80, characterized in that the bond material is formed from at least 45 wt% silicon oxide (SiO 2) and not greater than 55 wt% silicon oxide (SiO 2) and at least 0.5 wt % and not greater than 2.2 wt% alkali earth compounds, for the total weight of the bond material. forming a mixture including a bond material and abrasive particles comprising microcrystalline alumina; shaping the mixture to form a green body; and sintering the green body to form a bonded abrasive body including a bond material comprising a single phase vitreous bond material, wherein the bonded abrasive body comprises a strength ratio (MOR/MOE) of at least about 0.80,
An enzyme detection device for detecting the presence in a test sample of cleavage activity of an enzyme capable of cleaving a substrate, the device comprising: (i) an indicator molecule for adding to the test sample, said indicator molecule comprising (a) a cleavage region comprising at least one cleavage site, which can be cleaved by said enzyme if said enzyme cleavage activity is present; and (b) a capture site which remains intact following cleavage of the indicator molecule; wherein cleavage of the at least one cleavage site produces a novel binding site; (ii) a capture zone to receive the test sample, wherein the capture zone comprises capture molecules capable of binding to the capture site of the indicator molecule, irrespective of whether or not the indicator molecule has been cleaved, in order to immobilise the indicator molecule including the novel binding site; and (iii) binding molecules capable of binding to the novel binding site, wherein the binding molecules are incapable of binding to the indicator molecule unless and until cleavage has occurred. (i) an indicator molecule for adding to the test sample, said indicator molecule comprising (a) a cleavage region comprising at least one cleavage site, which can be cleaved by said enzyme if said enzyme cleavage activity is present; and (b) a capture site which remains intact following cleavage of the indicator molecule; wherein cleavage of the at least one cleavage site produces a novel binding site; (a) a cleavage region comprising at least one cleavage site, which can be cleaved by said enzyme if said enzyme cleavage activity is present; and (b) a capture site which remains intact following cleavage of the indicator molecule; (ii) a capture zone to receive the test sample, wherein the capture zone comprises capture molecules capable of binding to the capture site of the indicator molecule, irrespective of whether or not the indicator molecule has been cleaved, in order to immobilise the indicator molecule including the novel binding site; and (iii) binding molecules capable of binding to the novel binding site, wherein the binding molecules are incapable of binding to the indicator molecule unless and until cleavage has occurred.
A heating coil configured to inductively heat an elongated workpiece, the workpiece having a first lateral surface and a second lateral surface adjoining each other along a corner portion, wherein the first lateral surface has a recess at a location spaced away from the corner portion, and the first lateral surface, the second lateral surface and the recess extend continuously in a longitudinal direction of the workpiece, the heating coil comprising: a base conductor configured to face the first lateral surface; and a projected conductor configured to face the recess, wherein a width of the projected conductor is narrower than a width of the base conductor in a first direction orthogonal to the longitudinal direction, and the projected conductor is arranged to project toward the recess from a position of the base conductor in a second direction orthogonal to both the longitudinal direction and the first direction, characterized in that the base conductor and the projected conductor are arranged to extend in the longitudinal direction such that electric current flows through the base conductor and the projected conductor in the longitudinal direction. a base conductor configured to face the first lateral surface; and a projected conductor configured to face the recess, wherein a width of the projected conductor is narrower than a width of the base conductor in a first direction orthogonal to the longitudinal direction, and the projected conductor is arranged to project toward the recess from a position of the base conductor in a second direction orthogonal to both the longitudinal direction and the first direction, characterized in that the base conductor and the projected conductor are arranged to extend in the longitudinal direction such that electric current flows through the base conductor and the projected conductor in the longitudinal direction.
A user equipment in a wireless communication system including a base station and a plurality of further stations, each having base station functionality, the user equipment comprising: a transceiver configured for exchanging data traffic and signalling by employing wireless links with the base station and one or more further stations of the plurality of further stations, the wireless links including a first wireless link between the user equipment and the base station; and a processor coupled with the transceiver, the processor configured for: employing the first wireless link for control signalling between the user equipment and the base station; determining that a handover is triggered for a handover of the user equipment from a first further station to a second further station, the first further station and the second further station of the plurality of further stations; performing a handover for data traffic of the user equipment from the first further station to the second further station while maintaining the first link with the base station for the control signalling. a transceiver configured for exchanging data traffic and signalling by employing wireless links with the base station and one or more further stations of the plurality of further stations, the wireless links including a first wireless link between the user equipment and the base station; and a processor coupled with the transceiver, the processor configured for: employing the first wireless link for control signalling between the user equipment and the base station; determining that a handover is triggered for a handover of the user equipment from a first further station to a second further station, the first further station and the second further station of the plurality of further stations; performing a handover for data traffic of the user equipment from the first further station to the second further station while maintaining the first link with the base station for the control signalling. employing the first wireless link for control signalling between the user equipment and the base station; determining that a handover is triggered for a handover of the user equipment from a first further station to a second further station, the first further station and the second further station of the plurality of further stations; performing a handover for data traffic of the user equipment from the first further station to the second further station while maintaining the first link with the base station for the control signalling.
Lyzate (Ly) of dedifferentiated cells of the plant Helichrysum stoechas in a form that is suitable for topical administration, for improving the moisturization of the skin and/or the scalp and/or the lips.
A solid electrolyte material represented by the following compositional formula: Li 3-3δ-2a Y 1+δ-a M a Cl 6-x-y Br x I y formula where, M is at least one selected from the group consisting of Ta and Nb; and -1 < δ < 1, 0 < a < 1.2, 0 < (3 - 3δ - 2a), 0 < (1 + δ - a), 0 ≤ x ≤ 6, 0 ≤ y ≤ 6, and (x + y) ≤ 6 are satisfied. -1 < δ < 1, 0 < a < 1.2, 0 < (3 - 3δ - 2a), 0 < (1 + δ - a), 0 ≤ x ≤ 6, 0 ≤ y ≤ 6, and (x + y) ≤ 6 are satisfied.