mhurhangee/ep-ind-claims huggingface dataset:
A communication resource allocation method in which a base station allocates a communication resource being divided into a number of resources referred to as resource areas, comprising: allocating a whispering resource to a whispering area (S106, S206, S304, S401), the whispering area being a peripheral area of the base station and the whispering resource being a resource that the base station allocates to the whispering area and having a resource area changed in the communication resource in a time-hopping manner; and allocating a plurality of speaking resources to a plurality of speaking areas, respectively (S107, S207, S305, S402), the plurality of speaking areas belonging to a coverage area of the base station and the speaking resources being resources that the base station allocates to the speaking areas, wherein each of the plurality of speaking areas is a border area between the base station and a neighboring base station of a plurality of neighboring base stations, and wherein each of the plurality of speaking resources allocated to a speaking area corresponds to a whispering resource allocated by the neighboring base station, of which the speaking area is the border area, to a whispering area thereof. allocating a whispering resource to a whispering area (S106, S206, S304, S401), the whispering area being a peripheral area of the base station and the whispering resource being a resource that the base station allocates to the whispering area and having a resource area changed in the communication resource in a time-hopping manner; and allocating a plurality of speaking resources to a plurality of speaking areas, respectively (S107, S207, S305, S402), the plurality of speaking areas belonging to a coverage area of the base station and the speaking resources being resources that the base station allocates to the speaking areas, wherein each of the plurality of speaking areas is a border area between the base station and a neighboring base station of a plurality of neighboring base stations, and wherein each of the plurality of speaking resources allocated to a speaking area corresponds to a whispering resource allocated by the neighboring base station, of which the speaking area is the border area, to a whispering area thereof.
An electronic device comprising: at least one audio output portion corresponding to at least one speaker driver (104a,104b,104c,104d) configurable to output audio signals; and characterised by: a casing shaped and dimensioned in a manner so as to form at least one protrusion carrying the at least one audio output portion, the casing comprising: a first face carrying a display module; a second face; and sides, the first and second faces being spaced apart in a manner such that the sides are defined between them, wherein the at least one protrusion protrudes from at least one of the first face and the second face, and also from at least one of the sides. at least one audio output portion corresponding to at least one speaker driver (104a,104b,104c,104d) configurable to output audio signals; and characterised by: a casing shaped and dimensioned in a manner so as to form at least one protrusion carrying the at least one audio output portion, the casing comprising: a first face carrying a display module; a second face; and sides, the first and second faces being spaced apart in a manner such that the sides are defined between them, wherein the at least one protrusion protrudes from at least one of the first face and the second face, and also from at least one of the sides. a first face carrying a display module; a second face; and sides, the first and second faces being spaced apart in a manner such that the sides are defined between them, wherein the at least one protrusion protrudes from at least one of the first face and the second face, and also from at least one of the sides.
A process for modifying the color in transmission of an optical system measured according to standard NF EN 410, from an initial state having an initial color (L*l; a*i; b*i) to a final state having a final color (L*f; a*f; b*f), said process being characterized in that it comprises at least one step of modifying the absorbance properties of an optical element of said optical system so that at least 50% of the total absorption of this element, i.e. 50% of the integral value corresponding to the quantity of light absorbed by the optical element considered on the whole of its absorption spectrum, occurs in an effective absorption range ([λ min; λ max]) defined so that a raise in absorption by the optical system, from its initial state, of any amount of light at a wavelength λ comprised in said effective absorption range ([λ min; λ max]) generates a variation ΔC(λ) in chromaticity distance (C i, C(λ)) smaller than 0, where: Δ C λ = C λ − C i = a * λ − a * ref 2 + b * λ − b * ref 2 − a * i − a * ref 2 + b * i − b * ref 2 • (C i, C(λ)) is the chromaticity distance between a given value ((a*i; b*i), (a*(λ); b*(λ))) of chromaticity in transmission and a reference value (a*ref; b*ref) of chromaticity in transmission, representing the desired chromaticity in transmission for the optical system, • (a*i; b*i) is the initial value of chromaticity in transmission, • (a*(λ); b*(λ)) is the value of chromaticity in transmission obtained following the variation in absorption achieved at the wavelength λ ∈ [λ min; λ max], • said chromaticity values being placed in the colorimetric space CIE L*a*b*. • (C i, C(λ)) is the chromaticity distance between a given value ((a*i; b*i), (a*(λ); b*(λ))) of chromaticity in transmission and a reference value (a*ref; b*ref) of chromaticity in transmission, representing the desired chromaticity in transmission for the optical system, • (a*i; b*i) is the initial value of chromaticity in transmission, • (a*(λ); b*(λ)) is the value of chromaticity in transmission obtained following the variation in absorption achieved at the wavelength λ ∈ [λ min; λ max], • said chromaticity values being placed in the colorimetric space CIE L*a*b*.
System for membrane assisted humidity harvesting from a feed flow, comprising: - a membrane unit with: - a membrane, - a feed flow inlet and a feed flow outlet on a first side of the membrane, and - a recirculation inlet and a recirculation outlet on a second side of the membrane; wherein the membrane is configured to allow vapor to permeate through the membrane from the first side to the second side of the membrane; - a condensing system provided on the second side of the membrane, configured for condensing vapor; and - a recirculation pump configured for producing a recirculation flow on the second side of the membrane, wherein the condensing system comprises a first and a second heat exchanger, and wherein the first and the second heat exchanger are provided in a parallel configuration that is configured such that at least one heat exchanger is outside the actual recirculation flow. - a membrane unit with: - a membrane, - a feed flow inlet and a feed flow outlet on a first side of the membrane, and - a recirculation inlet and a recirculation outlet on a second side of the membrane; wherein the membrane is configured to allow vapor to permeate through the membrane from the first side to the second side of the membrane; - a membrane, - a feed flow inlet and a feed flow outlet on a first side of the membrane, and - a recirculation inlet and a recirculation outlet on a second side of the membrane; wherein the membrane is configured to allow vapor to permeate through the membrane from the first side to the second side of the membrane; - a condensing system provided on the second side of the membrane, configured for condensing vapor; and - a recirculation pump configured for producing a recirculation flow on the second side of the membrane, wherein the condensing system comprises a first and a second heat exchanger, and wherein the first and the second heat exchanger are provided in a parallel configuration that is configured such that at least one heat exchanger is outside the actual recirculation flow.
A method of hydraulically fracturing a hydrocarbon-bearing subterranean formation penetrated by a reservoir which comprises: (a) pumping a fluid into the formation at a pressure sufficient to create or enlarge a primary fracture; (b) determining a bottomhole treating pressure within the well; characterised in that such method comprises: (c) comparing the determined bottomhole treating pressure with a predetermined targeted bottomhole treating pressure; (d) diverting the flow of fluid from loss zones by introducing into the formation a chemical diverter, wherein the chemical diverter is introduced into the formation if the determined bottomhole pressure is less than the predetermined bottomhole pressure; (e) pumping a fracturing fluid into the formation, wherein the flow of the fracturing fluid to the loss zone is impeded by the chemical diverter, and (f) extending the primary fracture in the formation. (a) pumping a fluid into the formation at a pressure sufficient to create or enlarge a primary fracture; (b) determining a bottomhole treating pressure within the well; characterised in that such method comprises: (c) comparing the determined bottomhole treating pressure with a predetermined targeted bottomhole treating pressure; (d) diverting the flow of fluid from loss zones by introducing into the formation a chemical diverter, wherein the chemical diverter is introduced into the formation if the determined bottomhole pressure is less than the predetermined bottomhole pressure; (e) pumping a fracturing fluid into the formation, wherein the flow of the fracturing fluid to the loss zone is impeded by the chemical diverter, and (f) extending the primary fracture in the formation.
A control system of an air conditioner, comprising: a main machine control assembly receiving a feedback parameter of a main machine so as to adjust a water discharge temperature of the main machine according to the feedback parameter; a water pump control assembly, wherein the water pump control assembly is in communication with the main machine control assembly so as to adjust an operating parameter of a water pump according to a feedback parameter of the water pump; a cooling tower control assembly, wherein the cooling tower control assembly is connected to the water pump control assembly so as to adjust a current water discharge temperature of a cooling tower according to an environment parameter and a target water discharge temperature; and a tail end control assembly, wherein the tail end control assembly is connected to the water pump control assembly so as to adjust an operating state of a tail end according to user requirements. a main machine control assembly receiving a feedback parameter of a main machine so as to adjust a water discharge temperature of the main machine according to the feedback parameter; a water pump control assembly, wherein the water pump control assembly is in communication with the main machine control assembly so as to adjust an operating parameter of a water pump according to a feedback parameter of the water pump; a cooling tower control assembly, wherein the cooling tower control assembly is connected to the water pump control assembly so as to adjust a current water discharge temperature of a cooling tower according to an environment parameter and a target water discharge temperature; and a tail end control assembly, wherein the tail end control assembly is connected to the water pump control assembly so as to adjust an operating state of a tail end according to user requirements.
A construction machine comprising: a vehicle body configured to operate; an obstacle detection device that detects an obstacle present around the vehicle body; an inclined angle detection device that detects an inclined angle of the vehicle body; and a controller having an operation restriction function that performs a restriction control to restrict an operation of the vehicle body when the obstacle detection device detects an obstacle, characterized in that when the inclined angle of the vehicle body exceeds a predetermined threshold while the restriction control is not performed with the operation restriction function, the controller disables the operation restriction function, and when the inclined angle of the vehicle body exceeds the predetermined threshold while the restriction control is performed with the operation restriction function, the controller does not disable the operation restriction function. a vehicle body configured to operate; an obstacle detection device that detects an obstacle present around the vehicle body; an inclined angle detection device that detects an inclined angle of the vehicle body; and a controller having an operation restriction function that performs a restriction control to restrict an operation of the vehicle body when the obstacle detection device detects an obstacle, characterized in that when the inclined angle of the vehicle body exceeds a predetermined threshold while the restriction control is not performed with the operation restriction function, the controller disables the operation restriction function, and when the inclined angle of the vehicle body exceeds the predetermined threshold while the restriction control is performed with the operation restriction function, the controller does not disable the operation restriction function.
A shutter assembly, comprising: a plurality of shutter blades movable between an open position and a closed position; a plurality of drive mechanisms (160, 260) arranged circumferentially about the plurality of shutter blades for moving the plurality of shutter blades; wherein each of said drive mechanisms (160, 260) is stable in at least a first position and a second position; wherein each drive mechanism (160, 260) is a linear drive mechanism that comprises: a solenoid with a solenoid frame with coils wound on a portion of the frame, the solenoid having a first axis about which the coils are wound; and a permanent magnet armature movable linearly within the solenoid frame along the first axis; wherein the first position of the drive mechanism has the permanent magnet armature substantially encased within solenoid frame and the second position of the drive mechanism has the permanent magnet armature extended relative to the solenoid frame. a plurality of shutter blades movable between an open position and a closed position; a plurality of drive mechanisms (160, 260) arranged circumferentially about the plurality of shutter blades for moving the plurality of shutter blades; wherein each of said drive mechanisms (160, 260) is stable in at least a first position and a second position; wherein each drive mechanism (160, 260) is a linear drive mechanism that comprises: a solenoid with a solenoid frame with coils wound on a portion of the frame, the solenoid having a first axis about which the coils are wound; and a permanent magnet armature movable linearly within the solenoid frame along the first axis; a solenoid with a solenoid frame with coils wound on a portion of the frame, the solenoid having a first axis about which the coils are wound; and a permanent magnet armature movable linearly within the solenoid frame along the first axis; wherein the first position of the drive mechanism has the permanent magnet armature substantially encased within solenoid frame and the second position of the drive mechanism has the permanent magnet armature extended relative to the solenoid frame.
A method for the application of optical fibres in cold moldable materials such as concrete or other cementitious materials produced from other binders such as plaster, the said method comprising: - in a first stage of preparation of the formwork, optical end transmitting fibre beams are mounted in such a way as to produce an uniform distribution of points in the outer surface of the material, according to a preset network mesh aimed at obtaining the desired pixelization effect in specific targeted areas by: • heat sealing or sticking of the terminals of the optical fibre beams to a plasticized film which will coat the formwork's surface; or • fixing of the said terminals by mechanical means, using anchoring parts to be cut after the concreting and upon removal of the formwork; - the concreting of the piece is carried out after the required operations of framework assembly and pre-stress;-the formwork is removed after the hardening period and the terminals of the optical fibre beams on the backside of the piece are connected to an electronic light system; - the terminals in the surface of the piece are arranged in order to obtain the desired light transmission to each one of the cables forming one pixelized unit; characterized in that in the first stage of the preparation of the formwork, lateral transmitting fibre beams are also mounted at a short distance of outer surface of the material, to allow superficial effects to be produce. - in a first stage of preparation of the formwork, optical end transmitting fibre beams are mounted in such a way as to produce an uniform distribution of points in the outer surface of the material, according to a preset network mesh aimed at obtaining the desired pixelization effect in specific targeted areas by: • heat sealing or sticking of the terminals of the optical fibre beams to a plasticized film which will coat the formwork's surface; or • fixing of the said terminals by mechanical means, using anchoring parts to be cut after the concreting and upon removal of the formwork; • heat sealing or sticking of the terminals of the optical fibre beams to a plasticized film which will coat the formwork's surface; or • fixing of the said terminals by mechanical means, using anchoring parts to be cut after the concreting and upon removal of the formwork; - the concreting of the piece is carried out after the required operations of framework assembly and pre-stress;-the formwork is removed after the hardening period and the terminals of the optical fibre beams on the backside of the piece are connected to an electronic light system; - the terminals in the surface of the piece are arranged in order to obtain the desired light transmission to each one of the cables forming one pixelized unit; characterized in that
A vehicle with a run flat tire comprising: a wheel rim and said run flat tire including a carcass extending from a tread portion through a sidewall portion to a bead core of a bead portion, a side reinforcing rubber layer having a substantially crescent cross-sectional shape and disposed in an inside of the carcass of the sidewall portion and a heat-conducting member having coefficient of thermal conductivity of not less than 0.3 w/(mK) provided on a tire cavity surface, wherein said heat-conducting member extends, from a region where said side reinforcing rubber layer is projected on the tire cavity surface at least to the bead bottom of said bead portion so as to contact the rim part of the wheel rim directly when the ti re is mounted on the wheel rim; and a cooling device to cool said run flat tire by blasting fluid toward said run flat tire and/or a wheel rim on which said run flat tire is mounted.
Supporting structure for supporting a plurality of solar modules or ceiling elements, comprising at least two supporting frameworks with supporting masts (4, 4a, 4i) which are respectively connected to one another by means of a supporting cable, on which supporting cable the solar modules or ceiling elements are supported by means of vertical compression bars which are connected to the supporting cable by means of fastening elements, and which are subjected to a pretensioning force by means of at least one pretensioning cable, which pretensioning force pushes the compression bars in the downward direction toward the supporting cable which is connected to said compression bars, characterized in that the fastening elements comprise cable pulleys or sliding elements, by means of which the compression bars are displaceably coupled to the supporting cables and pretensioning cables, and in that the compression bars are coupled to the supporting masts (4, 4a, 4i) non-displaceably in the horizontal direction by means of positioning cables in order to avoid a horizontal movement.
A sidewall brace for use in a collapsible fluid containment device, the sidewall brace comprising: a base support leg; and a sidewall support arm pivotally mounted on the base support leg and rotatable around an axis of rotation from a collapsed position in which the sidewall support arm is substantially parallel with the base support leg to a raised position in which the sidewall support arm is substantially perpendicular to the base support leg, wherein the sidewall support arm comprises a locking tab including a radial projection extending from the locking tab radially from the axis of rotation frictionally engageable with a contact surface of the base support leg to thereby resist rotational movement of the sidewall support arm when the sidewall support arm is rotated from its raised position towards its collapsed position, characterized in that the locking tab is eccentric around the axis of rotation, and in that the locking tab comprises a notch radially inside the radial projection that provides resiliency and spring action for the radial projection as it moves over the contact surface of the base support leg. a base support leg; and a sidewall support arm pivotally mounted on the base support leg and rotatable around an axis of rotation from a collapsed position in which the sidewall support arm is substantially parallel with the base support leg to a raised position in which the sidewall support arm is substantially perpendicular to the base support leg, wherein the sidewall support arm comprises a locking tab including a radial projection extending from the locking tab radially from the axis of rotation frictionally engageable with a contact surface of the base support leg to thereby resist rotational movement of the sidewall support arm when the sidewall support arm is rotated from its raised position towards its collapsed position, characterized in that the locking tab is eccentric around the axis of rotation, and in that the locking tab comprises a notch radially inside the radial projection that provides resiliency and spring action for the radial projection as it moves over the contact surface of the base support leg.