mhurhangee/ep-ind-claims huggingface dataset:
A component comprising: a substrate comprising an outer surface and an inner surface, wherein the inner surface defines at least one hollow, interior space, wherein the outer surface of the substrate defines a pressure sidewall and a suction sidewall, wherein the pressure and suction sidewalls are joined together at a leading edge and at a trailing edge of the component and together form an airfoil portion of the component, wherein the outer surface of the substrate further defines at least one platform and at least one fillet that extends between and integrally connects the airfoil to a respective one of the at least one platform, wherein the outer surface defines one or more grooves that extend at least partially along a respective one of the at least one the fillet, and wherein each groove is in fluid communication with a respective hollow, interior space; and a coating disposed over at least a portion of the outer surface of the substrate, wherein the coating comprises at least a structural coating, wherein the structural coating extends over the one or more grooves, such that the one or more grooves and the structural coating together define one or more channels for cooling the respective fillet. a substrate comprising an outer surface and an inner surface, wherein the inner surface defines at least one hollow, interior space, wherein the outer surface of the substrate defines a pressure sidewall and a suction sidewall, wherein the pressure and suction sidewalls are joined together at a leading edge and at a trailing edge of the component and together form an airfoil portion of the component, wherein the outer surface of the substrate further defines at least one platform and at least one fillet that extends between and integrally connects the airfoil to a respective one of the at least one platform, wherein the outer surface defines one or more grooves that extend at least partially along a respective one of the at least one the fillet, and wherein each groove is in fluid communication with a respective hollow, interior space; and a coating disposed over at least a portion of the outer surface of the substrate, wherein the coating comprises at least a structural coating, wherein the structural coating extends over the one or more grooves, such that the one or more grooves and the structural coating together define one or more channels for cooling the respective fillet.
A contact lens care preparation consisting of a solution comprising 0.01 to 2 weight/volume% of a polymer having structural units represented by formulae (la) to: wherein R 1, R 2 and R 5 are each independently a hydrogen atom or a methyl group; R 3 and R 4 are each independently a methyl or ethyl group; R 6 is a monovalent hydrocarbon group having 12 to 24 carbon atoms; n1, n2, and n3 represent a molar ratio of the structural units, and fulfill n1: n2: n3 = 100: 10 to 400: 2 to 50, and a weight average molecular weight of 5, 000 to 2,000,000.
A method of self-organising network SON coordination, characterized in that the method further comprises: receiving at a training coordinator a training request from a SON function which wants to start training, the training request comprises: information on a function type, additional information comprising generic and/or specific training area and/or time; receiving at the training coordinator system information and/or events related to the training; determining by the training coordinator that the training request is to be granted and passing to a self-organising network SON coordinator a coordinated training request; making by the SON coordinator a decision to acknowledge or reject the coordinated training request; in the case of granting the coordinated training request, the SON coordinator enforces the decision by locking a certain network area to avoid impact to the training; receiving at the training coordinator events relevant for the training; in response to the events, the training coordinator carries out appropriate actions. receiving at a training coordinator a training request from a SON function which wants to start training, the training request comprises: information on a function type, additional information comprising generic and/or specific training area and/or time; receiving at the training coordinator system information and/or events related to the training; determining by the training coordinator that the training request is to be granted and passing to a self-organising network SON coordinator a coordinated training request; making by the SON coordinator a decision to acknowledge or reject the coordinated training request; in the case of granting the coordinated training request, the SON coordinator enforces the decision by locking a certain network area to avoid impact to the training; receiving at the training coordinator events relevant for the training; in response to the events, the training coordinator carries out appropriate actions.
A system for transmitting data, images, and audio to and from an aerially moved payload, the system comprising: two or more payload devices (14, 16), each device capturing one or more of data, images, and/or audio coax signals; one or more media converters (104, 106) for converting the one or more of data, images, and/or audio coax signals to fiber signals; wherein the two or more payload devices are cameras (100, 102) for gathering images, the two or more cameras (100, 102) forming part of the aerially moved payload and each providing an output to the one or more media converters (104, 106); characterized in that the system further comprises: at least two wave division multiplexers (108; 116), one for combining two or more distinct fiber signals into a single signal and one for de-multiplexing the single signal back into two or more distinct fiber signals; and a fiber optic line along which the single signal may be transmitted to and from the aerially moved payload. two or more payload devices (14, 16), each device capturing one or more of data, images, and/or audio coax signals; one or more media converters (104, 106) for converting the one or more of data, images, and/or audio coax signals to fiber signals; wherein the two or more payload devices are cameras (100, 102) for gathering images, the two or more cameras (100, 102) forming part of the aerially moved payload and each providing an output to the one or more media converters (104, 106); characterized in that the system further comprises: at least two wave division multiplexers (108; 116), one for combining two or more distinct fiber signals into a single signal and one for de-multiplexing the single signal back into two or more distinct fiber signals; and a fiber optic line along which the single signal may be transmitted to and from the aerially moved payload. at least two wave division multiplexers (108; 116), one for combining two or more distinct fiber signals into a single signal and one for de-multiplexing the single signal back into two or more distinct fiber signals; and a fiber optic line along which the single signal may be transmitted to and from the aerially moved payload.
A method of configuring a transport block size for a user equipment in a wireless communications system, the method comprising: providing a transport block size table, providing a combination table for generating a value of a parameter k 0,i according to a combination of a modulation scheme and a number of channelization codes chosen by a base station to decide a transport block size index k t being a sum of the value of the parameter k 0,i and a transport format and resource indicator TFRI value k i; configuring a first value of the parameter k 0,i corresponding to the least resource usage in the combination table to be equal to a first transport block size index k t, subsequently deciding the transport block size index k t, wherein - the first transport block size index k t is a transport block size index k t corresponding to the smallest transport block size in the transport block size table, and - the combination table and the transport block size table are used when 64 Quadrature Amplitude Modulation is activated; and configuring the transport block size according to the smallest transport block size in the transport block size table, wherein further the first value of the parameter k 0,i corresponds to a combination of QPSK modulation and one channelization code. providing a transport block size table, providing a combination table for generating a value of a parameter k 0,i according to a combination of a modulation scheme and a number of channelization codes chosen by a base station to decide a transport block size index k t being a sum of the value of the parameter k 0,i and a transport format and resource indicator TFRI value k i; configuring a first value of the parameter k 0,i corresponding to the least resource usage in the combination table to be equal to a first transport block size index k t, subsequently deciding the transport block size index k t, wherein - the first transport block size index k t is a transport block size index k t corresponding to the smallest transport block size in the transport block size table, and - the combination table and the transport block size table are used when 64 Quadrature Amplitude Modulation is activated; and - the first transport block size index k t is a transport block size index k t corresponding to the smallest transport block size in the transport block size table, and - the combination table and the transport block size table are used when 64 Quadrature Amplitude Modulation is activated; and configuring the transport block size according to the smallest transport block size in the transport block size table, wherein further the first value of the parameter k 0,i corresponds to a combination of QPSK modulation and one channelization code.
A system for the simultaneous production of electrical, thermal and cooling energy comprising: - a PVT panel with radiative cooling, preferably of non-glazed type, for the production of electrical and/or thermal energy and/or cooling energy; - a cold storage tank, adapted to contain cooled water in said PVT panel; and - a first heat exchanger, to release heat from the water heated in said PVT panel; connected to each other in a first hydraulic circuit; the system further comprising: - first means (2a, 2b, 2c, 2f) for measuring first temperature values at predetermined points of the system; - first means (6a, 8, 9, 10) for controlling the flow of water in said first hydraulic circuit, configured so that said PVT panel can be alternatively connected hydraulically to said cold storage tank or to said first heat exchanger, as a function of said first measured temperature values, and - a hot storage tank, adapted to contain water and comprising an inlet and an outlet, said first heat exchanger being inside said hot storage tank. - a PVT panel with radiative cooling, preferably of non-glazed type, for the production of electrical and/or thermal energy and/or cooling energy; - a cold storage tank, adapted to contain cooled water in said PVT panel; and - a first heat exchanger, to release heat from the water heated in said PVT panel; - first means (2a, 2b, 2c, 2f) for measuring first temperature values at predetermined points of the system; - first means (6a, 8, 9, 10) for controlling the flow of water in said first hydraulic circuit, configured so that said PVT panel can be alternatively connected hydraulically to said cold storage tank or to said first heat exchanger, as a function of said first measured temperature values, and - a hot storage tank, adapted to contain water and comprising an inlet and an outlet, said first heat exchanger being inside said hot storage tank.
Environmental control system intended to control a plurality of devices (1, 2, 3, 4) in a house, said system comprising - a remote control device; and - a transmission network for routing control signals from the remote control device to the devices to be controlled, said transmission network including a plurality of transmission interface modules, each module comprising short-range radiofrequency transmission means for communicating with one another and with the devices provided with radiofrequency transmission means, and radiofrequency/infrared conversion means for communicating with the devices provided with infrared transmission means, characterized in that the remote control device is a mobile telecommunication device that additionally comprises short-range radiofrequency transmission means that are compatible with those of the transmission interface modules and in that the environmental control system additionally comprises a linking service that is accessible using the remote control device via a mobile telecommunication network, said linking service comprising means for managing calls; in which at least one of the transmission interface modules additionally comprises mobile telecommunication means so as to receive control signals coming from the control device via a mobile telecommunication network. - a remote control device; and - a transmission network for routing control signals from the remote control device to the devices to be controlled, said transmission network including a plurality of transmission interface modules, each module comprising short-range radiofrequency transmission means for communicating with one another and with the devices provided with radiofrequency transmission means, and radiofrequency/infrared conversion means for communicating with the devices provided with infrared transmission means,
A hydrogen storage alloy for an alkaline battery which is used as a negative electrode active material of an alkaline battery, comprising: an element R selected from the Group IV and the rare earth elements including Y and excluding La; and an element M consisting of at least one of Co, Mn, and Zn wherein the hydrogen storage alloy is represented by general formula: La α R 1-α-β Mg β Ni γ-η-ε (wherein α, β, γ, η, ε satisfy numerical formula: 05≤α≤0.5, 0.1≤β≤0.2, 3.7≤γ≤3.9, 0.1≤η≤0.3, 0≤ε≤0.2); and the constituent ratio of the A 0 B 19 -type structure is 40% or more in the crystal structure thereof. an element R selected from the Group IV and the rare earth elements including Y and excluding La; and an element M consisting of at least one of Co, Mn, and Zn wherein the hydrogen storage alloy is represented by general formula: La α R 1-α-β Mg β Ni γ-η-ε (wherein α, β, γ, η, ε satisfy numerical formula: 05≤α≤0.5, 0.1≤β≤0.2, 3.7≤γ≤3.9, 0.1≤η≤0.3, 0≤ε≤0.2); and the constituent ratio of the A 0 B 19 -type structure is 40% or more in the crystal structure thereof.
A soil restoration method, being applied to heavy metal polluted soil, comprising the following steps: a) testing soil condition and determining whether heavy metal pollutants are present; b) testing the heavy metal elements that have polluted the soil and collecting related data; c) when the heavy metal pollutants include at least one of the elements including mercury, cadmium, arsenic, and lead, based on the conditions and data from (a) and (b), decide which mineral elements to add to the polluted soil that provide the required antagonistic effects, including at least more than two of the elements: selenium (Se), molybdenum (Mo), germanium (Ge), zinc (Zn), sulphur, copper (Cu), and calcium (Ca); and at the same time add to the polluted soil mineral elements that provide the required synergistic effects, including at least more than one of the elements manganese (Mn), calcium (Ca), copper (Cu), magnesium (Mg), molybdenum (Mo), zinc (Zn), nitrogen, boron, phosphorus, iron (Fe), and potassium; and d) based on the conditions and data from steps (a) and (b), decide which photosynthetic organisms among effective micro organisms to add, together with at least more than one lactic acid organism, yeast organism, actino-organism, or fermentative filamentous flora, wherein, based on the conditions and data from steps (a) and (b), further add a variety of organism groups of effective micro organisms, the proportion of each organism group being 10 to 20% of photosynthetic organisms, 20 to 30% of lactic acid organisms, 20 to 30% of yeast organisms, 10 to 20% of actino-organisms and 10 to 20% of fermentative filamentous flora. a) testing soil condition and determining whether heavy metal pollutants are present; b) testing the heavy metal elements that have polluted the soil and collecting related data; c) when the heavy metal pollutants include at least one of the elements including mercury, cadmium, arsenic, and lead, based on the conditions and data from (a) and (b), decide which mineral elements to add to the polluted soil that provide the required antagonistic effects, including at least more than two of the elements: selenium (Se), molybdenum (Mo), germanium (Ge), zinc (Zn), sulphur, copper (Cu), and calcium (Ca); and at the same time add to the polluted soil mineral elements that provide the required synergistic effects, including at least more than one of the elements manganese (Mn), calcium (Ca), copper (Cu), magnesium (Mg), molybdenum (Mo), zinc (Zn), nitrogen, boron, phosphorus, iron (Fe), and potassium; and d) based on the conditions and data from steps (a) and (b), decide which photosynthetic organisms among effective micro organisms to add, together with at least more than one lactic acid organism, yeast organism, actino-organism, or fermentative filamentous flora,
A shutter apparatus for a media handling device, comprising: a side flange attached to an end of a blade; and a sensor; wherein the side flange is adapted to open and close a media slot through movement of the blade during a media operation being processed on the media handling device; wherein the side flange further includes: a first aperture adapted to receive a pin that moves the side flange and correspondingly the blade; a second aperture adjacent to the first aperture adapted to rupture the pin from the first aperture into the second aperture when a force above a threshold is exerted on the blade; and a bottom extending notch; wherein the sensor is adapted to surround a portion of the bottom extending notch and raise a signal of a blade not closed state when the bottom extending notch moves based on the pin rupturing from the first aperture into the second aperture. a side flange attached to an end of a blade; and a sensor; wherein the side flange is adapted to open and close a media slot through movement of the blade during a media operation being processed on the media handling device; wherein the side flange further includes: a first aperture adapted to receive a pin that moves the side flange and correspondingly the blade; a second aperture adjacent to the first aperture adapted to rupture the pin from the first aperture into the second aperture when a force above a threshold is exerted on the blade; and a bottom extending notch; a first aperture adapted to receive a pin that moves the side flange and correspondingly the blade; a second aperture adjacent to the first aperture adapted to rupture the pin from the first aperture into the second aperture when a force above a threshold is exerted on the blade; and a bottom extending notch; wherein the sensor is adapted to surround a portion of the bottom extending notch and raise a signal of a blade not closed state when the bottom extending notch moves based on the pin rupturing from the first aperture into the second aperture.
An electrocardiograph comprising a chest assembly intended to be applied to the body of a patient in the chest region and an electronic unit provided with a recording module and with a wireless transceiver module, wherein said chest assembly comprises a plurality of electrodes (201, 202, 203, 204, 205) configured to be connected to the body of a patient for the recording of an electrocardiogram and respective electrical wires (211, 212, 213, 214, 215) connecting each electrode to said electronic unit, the chest assembly further comprising a housing to which said electrical wires (211, 212, 213, 214, 215) are respectively fixed, first electrical terminals (221, 222, 223, 224, 225) of the wires (211, 212, 213, 214, 215) being restrained to said housing, characterized in that said electronic unit is provided with a contact interface configured to be electrically connected to the first electrical terminals (221, 222, 223, 224, 225), the contact interface protruding from the electronic unit and comprising a plurality of second electrical terminals (311, 312, 313, 314, 315) arranged according to a pattern corresponding to a predetermined pattern according to which the first electrical terminals (221, 222, 223, 224, 225) of the wires (211, 212, 213, 214, 215) are arranged, the number of the second electrical terminals (311, 312, 313, 314, 315) corresponding to the number of the first electrical terminals (221, 222, 223, 224, 225); the electronic unit comprises a watertight casing, is configured to be removably fitted in the housing, and comprises a Hall-effect magnetic sensor configured to selectively allow, when activated by a magnet, the electronic unit to mark an electrocardiogram, to start and stop recording of an electrocardiogram and/or to send a record of an electrocardiogram to a telecommunications network; and in that the electrocardiograph further comprises said magnet, separated from said electronic unit, for the activation of said Hall-effect magnetic sensor when placed from the outside in proximity to said electronic unit, said magnet being mounted on a supporting member configured to be worn by the patient during a monitoring period.
A two-stage reaction process comprising: reacting a first feed mixture comprising carbon dioxide with a hydrogen-containing reducing agent under first reaction conditions and converting at least a portion of the first feed mixture to a first tail gas comprising carbon monoxide and water vapor; condensing at least a portion of the water from the first tail gas to form a dried first tail gas; and reacting the dried first tail gas under second reaction conditions and converting at least a portion of the carbon monoxide in the dried first tail gas to solid carbon and a second tail gas comprising water vapor. reacting a first feed mixture comprising carbon dioxide with a hydrogen-containing reducing agent under first reaction conditions and converting at least a portion of the first feed mixture to a first tail gas comprising carbon monoxide and water vapor; condensing at least a portion of the water from the first tail gas to form a dried first tail gas; and reacting the dried first tail gas under second reaction conditions and converting at least a portion of the carbon monoxide in the dried first tail gas to solid carbon and a second tail gas comprising water vapor.