mhurhangee/ep-ind-claims huggingface dataset:
Apparatus for making an impression (12 or 12bis) in a preform based on hydraulic binder, this apparatus comprising at least: - a frame; and characterized in that it comprises: - two first pulleys (102, 103) supported at a first end of the frame and two second pulleys (105, 106) at a second end of the frame; the first pulleys (102, 103) and second pulleys (105, 106) being in parallel planes, the pulleys (102, 103) and (105, 106) facing each other being identical; - two transmission belts (108, 109) wrapped respectively around the first pulleys (102, 103) and the second pulleys (105, 106); - at least one wire fixed removably to the belts (108, 109) and extending between these belts (108, 109) so that its longitudinal axis is parallel to the axis of rotation of the pulleys (102, 103, 105, 106). - a frame; and characterized in that it comprises: - two first pulleys (102, 103) supported at a first end of the frame and two second pulleys (105, 106) at a second end of the frame; the first pulleys (102, 103) and second pulleys (105, 106) being in parallel planes, the pulleys (102, 103) and (105, 106) facing each other being identical; - two transmission belts (108, 109) wrapped respectively around the first pulleys (102, 103) and the second pulleys (105, 106); - at least one wire fixed removably to the belts (108, 109) and extending between these belts (108, 109) so that its longitudinal axis is parallel to the axis of rotation of the pulleys (102, 103, 105, 106).
An automatic water drain apparatus, comprising: a reservoir; a fluid inlet that is in fluid communication with the reservoir; a first valve member that is moveable between an open position for admitting fluid to the reservoir via the fluid inlet and a closed position for preventing admission of fluid to the reservoir via the fluid inlet; a fluid outlet that is in fluid communication with the reservoir; a second valve member that is moveable between an open position for exhausting fluid from the reservoir and a closed position for preventing exhaust of fluid from the reservoir; and wherein the apparatus is configured such that the second valve member is open when the first valve member is closed; at least one actuator that is operable to move the first valve member and the second valve member between their respective open and closed positions; and a sensor assembly that is disposed outside the reservoir and is operable to produce a first sensor output signal in response to detection of the presence of water, wherein the at least one actuator moves the first valve member to the open position in response to the first sensor output signal, and the second valve member simultaneously moves to the closed position in response to the at least one actuator moving the first valve member to the open position. a reservoir; a fluid inlet that is in fluid communication with the reservoir; a first valve member that is moveable between an open position for admitting fluid to the reservoir via the fluid inlet and a closed position for preventing admission of fluid to the reservoir via the fluid inlet; a fluid outlet that is in fluid communication with the reservoir; a second valve member that is moveable between an open position for exhausting fluid from the reservoir and a closed position for preventing exhaust of fluid from the reservoir; and wherein the apparatus is configured such that the second valve member is open when the first valve member is closed; at least one actuator that is operable to move the first valve member and the second valve member between their respective open and closed positions; and a sensor assembly that is disposed outside the reservoir and is operable to produce a first sensor output signal in response to detection of the presence of water, wherein the at least one actuator moves the first valve member to the open position in response to the first sensor output signal, and the second valve member simultaneously moves to the closed position in response to the at least one actuator moving the first valve member to the open position.
A DPF regeneration control device, provided for an exhaust-gas processing device of a diesel engine, the exhaust-gas processing device including a DOC disposed in an exhaust channel and a DPF disposed on a downstream side of the DOC, for controlling execution of forced regeneration of heating the DPF to remove PM which accumulates on the DPF, the forced regeneration comprising automatic regeneration automatically executed if a predetermined forced-regeneration execution condition is satisfied, and manual regeneration executed by manual operation to heat the DPF to a higher temperature than in the automatic regeneration, and the DPF regeneration device comprising: a DPF temperature-increase unit including a first temperature-increase unit configured to heat the DPF to a predetermined temperature, and a second temperature-increase unit configured to heat the DPF to a temperature higher than the predetermined temperature in cooperation with the first temperature-increase unit, characterized by comprising: a DOC clogging detection unit configured to detect that the DOC is clogged if a clogging parameter detected during execution of the automatic regeneration exceeds a clogging threshold value determined in advance for a predetermined period, the clogging parameter being related to clogging of the DOC; a DOC clogging countermeasure unit configured to stop the automatic regeneration and issue an alert to prompt execution of the manual regeneration, if the clogging of the DOC is detected; a DOC clogging dangerous state detection unit configured to detect that the DOC is in a clogging dangerous state if the diesel engine is under an operation state in which clogging of the DOC is likely to occur during normal operation in which none of the forced regenerations, which are the automatic regeneration and the manual regeneration, is executed; and a DOC clogging dangerous state countermeasure unit configured to operate the first temperature-increase unit for only a predetermined period if the DOC is detected to be in the clogging dangerous state. a DOC clogging detection unit configured to detect that the DOC is clogged if a clogging parameter detected during execution of the automatic regeneration exceeds a clogging threshold value determined in advance for a predetermined period, the clogging parameter being related to clogging of the DOC; a DOC clogging countermeasure unit configured to stop the automatic regeneration and issue an alert to prompt execution of the manual regeneration, if the clogging of the DOC is detected; a DOC clogging dangerous state detection unit configured to detect that the DOC is in a clogging dangerous state if the diesel engine is under an operation state in which clogging of the DOC is likely to occur during normal operation in which none of the forced regenerations, which are the automatic regeneration and the manual regeneration, is executed; and a DOC clogging dangerous state countermeasure unit configured to operate the first temperature-increase unit for only a predetermined period if the DOC is detected to be in the clogging dangerous state.
A method of controlling access to a predetermined guidance or elevator service or area in a building, comprising: receiving an activation signal indicative of a user's activation of an access code; as a result of receiving the activation signal, sending a verification code to a portable electronic device of the user; receiving the verification code at an access terminal; and granting access to the predetermined guidance or elevator service or area in the building if the verification code is received at the access terminal meeting one of several predetermined conditions. receiving an activation signal indicative of a user's activation of an access code; as a result of receiving the activation signal, sending a verification code to a portable electronic device of the user; receiving the verification code at an access terminal; and granting access to the predetermined guidance or elevator service or area in the building if the verification code is received at the access terminal meeting one of several predetermined conditions.
A wireless communication terminal, the terminal comprising: a processor(1 10); and a communication unit, wherein the processor is configured to: receive a wireless packet including a High Efficiency Signal A, HE-SIG-A, field and a High Efficiency Signal B, HE-SIG-B, field through the communication unit, obtain bandwidth information indicated via a bandwidth subfield included in the HE-SIG-A field, obtain information of an unassigned resource unit via a subfield included in the HE-SIG-B field, wherein the bandwidth subfield is related to bandwidth over which the received wireless packet is transmitted, and is used to obtain the information of the unassigned resource unit, and decode a data of the received wireless packet based on the bandwidth information and the information of the unassigned resource unit, wherein the information of the unassigned resource unit includes information of a C26 subfield indicating whether a user is allocated to a center 26-tone resource unit of 80 MHz when the received wireless packet is transmitted in a total bandwidth of 80 MHz or more. a processor(1 10); and a communication unit, wherein the processor is configured to: receive a wireless packet including a High Efficiency Signal A, HE-SIG-A, field and a High Efficiency Signal B, HE-SIG-B, field through the communication unit, obtain bandwidth information indicated via a bandwidth subfield included in the HE-SIG-A field, obtain information of an unassigned resource unit via a subfield included in the HE-SIG-B field, wherein the bandwidth subfield is related to bandwidth over which the received wireless packet is transmitted, and is used to obtain the information of the unassigned resource unit, and decode a data of the received wireless packet based on the bandwidth information and the information of the unassigned resource unit, wherein the information of the unassigned resource unit includes information of a C26 subfield indicating whether a user is allocated to a center 26-tone resource unit of 80 MHz when the received wireless packet is transmitted in a total bandwidth of 80 MHz or more. receive a wireless packet including a High Efficiency Signal A, HE-SIG-A, field and a High Efficiency Signal B, HE-SIG-B, field through the communication unit, obtain bandwidth information indicated via a bandwidth subfield included in the HE-SIG-A field, obtain information of an unassigned resource unit via a subfield included in the HE-SIG-B field, wherein the bandwidth subfield is related to bandwidth over which the received wireless packet is transmitted, and is used to obtain the information of the unassigned resource unit, and decode a data of the received wireless packet based on the bandwidth information and the information of the unassigned resource unit, wherein the information of the unassigned resource unit includes information of a C26 subfield indicating whether a user is allocated to a center 26-tone resource unit of 80 MHz when the received wireless packet is transmitted in a total bandwidth of 80 MHz or more.
A non-therapeutic method of scavenging free radicals, the method comprising: administering one or more free radical scavenging compounds selected from the group consisting of C84 fullerenes and derivatives thereof to a dermal substrate or a non-physiological target, wherein the free radical scavenger compound reduces the levels of free radicals in or around the dermal substrate or non-physiological target and wherein the free radical scavenger compound does not significantly increase pro-oxidant activity due to triplet excited states under irradiation, wherein the free radical scavenging compound has the general formula, C 84 m, C 84 is a fullerene, and where Y is a moiety attached, directly or indirectly, to the C 84 fullerene, where m is in the range of 1 to 20, and Y is selected from the group consisting of lipophilic moieties, hydrophilic moieties, amphiphilic moieties, free radical scavenging moieties, or bio-site specific moieties.
A header device for a heat exchanger system comprising a tube arrangement configured to convey a fluid to be heated and comprising a number of tubes for the fluid to be heated, the header device comprising a header comprising an inlet portion and an outlet portion communicating with each other, wherein the inlet portion comprises a header inlet for a first fluid, wherein the outlet portion comprises a wall surrounding an inner space, wherein the outlet portion comprises a header outlet, which extends through the wall and is configured to be connected to the tube arrangement, wherein the header outlet comprises a number of openings through the wall of the outlet portion, each opening being configured to be connected to one of the tubes, wherein the header is configured to permit the first fluid to enter the inner space via the header inlet, and to flow from the inner space to the tube arrangement via the header outlet, characterized in that the header device comprises an injector pipe connected to the header, wherein a first portion of the injector pipe comprises an injector outlet and extends inside the inner space of the header, and wherein the injector pipe is arranged to inject a second fluid into the header to force, by means of an ejector action, the first fluid through the header outlet and into the tube arrangement together with the second fluid, the fluid to be heated comprising the first and second fluids.
A method of receiving data coded on an ultrasonic signal comprising: detecting said ultrasonic signal using a microphone; down-converting the frequency of said ultrasonic signal; and electronically decoding (30-40, 52) said signal to determine said data, characterised by the microphone having its greatest response below 20 kilohertz and by said down-converting being done by applying oscillatory control to an amplifier amplifying signals received by the microphone to modulate the ultrasonic signal at a predetermined frequency. detecting said ultrasonic signal using a microphone; down-converting the frequency of said ultrasonic signal; and electronically decoding (30-40, 52) said signal to determine said data, characterised by the microphone having its greatest response below 20 kilohertz and by said down-converting being done by applying oscillatory control to an amplifier amplifying signals received by the microphone to modulate the ultrasonic signal at a predetermined frequency.
A safety device against leaks of liquid for a liquid-conducting household appliance or system, the device being designed for connection between a source of liquid and a liquid-conducting household appliance or system, the device comprising: - a first pipe for the liquid which comes from the source of liquid, - at least one hydraulic unit (11; 12), having a duct for the liquid, the at least one hydraulic unit being upstream of the first pipe or else downstream of the first pipe, - a flow sensor in the at least one hydraulic unit (11; 12), wherein the first pipe is connected in fluid communication with said duct and extends longitudinally at least in part within a second pipe that is impermeable to liquid, in such a way that defined between at least part of the first pipe and of the second pipe is a gap having a proximal end and a distal end, wherein the at least one hydraulic unit (11; 12) has a respective hydraulic body (15; 16; 15 1 -15 2) that defines said duct, and wherein the device optionally comprises a valve arrangement that is electrically switchable between a closing position and an opening position, to prevent or enable, respectively, passage of liquid through the first pipe, characterized in that the flow sensor is a non-mechanical flow sensor that includes at least two first electrical detection elements (42; 42 1, 42 2, 42 3) within said duct, and in that the device further comprises an electrical and non-mechanical leak sensor in the at least one hydraulic unit (11; 12), the electrical and non-mechanical leak sensor comprising at least two electrodes prearranged for detecting possible leakage liquid having flown into the gap and/or into a leakage detection chamber or volume. - a first pipe for the liquid which comes from the source of liquid, - at least one hydraulic unit (11; 12), having a duct for the liquid, the at least one hydraulic unit being upstream of the first pipe or else downstream of the first pipe, - a flow sensor in the at least one hydraulic unit (11; 12), wherein the first pipe is connected in fluid communication with said duct and extends longitudinally at least in part within a second pipe that is impermeable to liquid, in such a way that defined between at least part of the first pipe and of the second pipe is a gap having a proximal end and a distal end, wherein the at least one hydraulic unit (11; 12) has a respective hydraulic body (15; 16; 15 1 -15 2) that defines said duct, and wherein the device optionally comprises a valve arrangement that is electrically switchable between a closing position and an opening position, to prevent or enable, respectively, passage of liquid through the first pipe, characterized in that the flow sensor is a non-mechanical flow sensor that includes at least two first electrical detection elements (42; 42 1, 42 2, 42 3) within said duct, and in that the device further comprises an electrical and non-mechanical leak sensor in the at least one hydraulic unit (11; 12), the electrical and non-mechanical leak sensor comprising at least two electrodes prearranged for detecting possible leakage liquid having flown into the gap and/or into a leakage detection chamber or volume.
A patch antenna comprising: a radiating element having a flat-plate shape; and a parasitic element (40, 40a, 40b) spaced away from the radiating element by a distance (b) in planar view in which the radiating element is seen from a direction perpendicular to a plate surface of the radiating element, wherein the parasitic element (40, 40a) is provided on a same surface of a dielectric substrate of the patch antenna as the radiating element, and characterized in that a height difference (h) between a height Hp of a top face of the parasitic element in the direction perpendicular to the plate surface of the radiating element and a height Hr of a top face of the radiating element in the direction perpendicular to the plate surface of the radiating element satisfies 0 < Hp - Hr < α × 0.05, where α is the maximum length of the diagonal line of the radiating element in the planar view. a radiating element having a flat-plate shape; and a parasitic element (40, 40a, 40b) spaced away from the radiating element by a distance (b) in planar view in which the radiating element is seen from a direction perpendicular to a plate surface of the radiating element, wherein the parasitic element (40, 40a) is provided on a same surface of a dielectric substrate of the patch antenna as the radiating element, and characterized in that a height difference (h) between a height Hp of a top face of the parasitic element in the direction perpendicular to the plate surface of the radiating element and a height Hr of a top face of the radiating element in the direction perpendicular to the plate surface of the radiating element satisfies 0 < Hp - Hr < α × 0.05, where α is the maximum length of the diagonal line of the radiating element in the planar view.
A negative active material for a rechargeable lithium battery including surface modified silicon oxide particles having a bulk formula represented by SiO x (0<x<2) and having a ratio of silicon relative to oxygen (Si/O ratio) on the surface of the particles in the range of 1.8 to 2.4, characterized in that a content of silicon (Si) decreases from the surface toward the core of the particles, while the content of oxygen increases from the surface toward the core of the particles
A ventilation ducting connector for connecting ventilation ducting sections (2,4) formed from a compressible material, the connector being arranged to receive the free ends of two contiguous ducting sections such that the ducting sections define a continuous air conduit, the collar being reconfigurable between an open configuration in which the ducting sections may be freely inserted into the collar and a clamped configuration in which it surrounds part of each ducting section and provides a compressive force to hold the ducting sections in a relative position, characterised in that the collar comprises at least one inwardly extending projection arranged on its inner surface to penetrate the outer surface of at least one of the ducting sections when the collar is in the clamped configuration.
A cold weather tire, comprising a cap tread formed from a cap tread rubber composition for cold weather tires, the cap tread rubber composition comprising: a rubber component including an isoprene-based rubber, polybutadiene rubber, and styrene-butadiene rubber; silica; and a plasticizer, the isoprene-based rubber and the polybutadiene rubber being present in a combined amount of 80% by mass or more, the polybutadiene rubber being present in an amount of 30% by mass or more, the styrene-butadiene rubber being present in an amount of 0.3% to 10% by mass, each based on 100% by mass of the rubber component, the rubber composition comprising, per 100 parts by mass of the rubber component, at least 120 parts by mass of the silica and at least 50 parts by mass of the plasticizer. a rubber component including an isoprene-based rubber, polybutadiene rubber, and styrene-butadiene rubber; silica; and a plasticizer, the isoprene-based rubber and the polybutadiene rubber being present in a combined amount of 80% by mass or more, the polybutadiene rubber being present in an amount of 30% by mass or more, the styrene-butadiene rubber being present in an amount of 0.3% to 10% by mass, each based on 100% by mass of the rubber component, the rubber composition comprising, per 100 parts by mass of the rubber component, at least 120 parts by mass of the silica and at least 50 parts by mass of the plasticizer.
A method, performed by a communication device, for determining an amount of energy consumed by nodes within a network with respect to the transmission of a media content item to the communication device, the method comprising: receiving, by the communication device, a plurality of network packets, wherein each of the plurality of network packets contains a portion of the media content item and an aggregate energy consumption value indicating the total energy consumption for transmitting said packet across a network to the communication device; for each said received network packet, extracting, by the communication device, the aggregate energy consumption value contained in said network packet; summing, by the communication device, the extracted aggregate energy consumption values to produce a total energy consumption value; and providing for display on the communication device information relating to the total energy consumption value. receiving, by the communication device, a plurality of network packets, wherein each of the plurality of network packets contains a portion of the media content item and an aggregate energy consumption value indicating the total energy consumption for transmitting said packet across a network to the communication device; for each said received network packet, extracting, by the communication device, the aggregate energy consumption value contained in said network packet; summing, by the communication device, the extracted aggregate energy consumption values to produce a total energy consumption value; and providing for display on the communication device information relating to the total energy consumption value.