mhurhangee/ep-ind-claims huggingface dataset:
An electrode suitable for carrying out oxygen evolution reaction in the electrolysis of water in alkaline conditions, the electrode comprising a. a ceramic material of formula [(A x)A' (1-x)] y B z B' (1-z) O 3-δ where each of A and A', independently, is a rare earth or alkaline earth metal, x is in the range of 0 to 1, y is A-site occupancy and is in the range of 0.5 to 0.99, each of B and B', independently, is a transition metal, z is in the range of 0 to 1, O is oxygen, and δ is oxygen non-stoichiometry and is in the range of -1 to 1, and b. a second material being a metallic Ni, a metallic alloy of Fe and Ni, or a hydroxide of Ni and Fe; wherein stability factor of the ceramic material is defined in formula, SF = r O ⋅ 3 − δ 3 r B, av − n A, Av n A, Av − r A, av / r B, av ln r A, av r B, av where r o is the Shannon ionic radius of oxide ion (O 2-), r B,av is the weighted average Shannon ionic radius of B and B', defined in formula, r B,Av = z ⋅ r B + 1 − z ⋅ r B ′ where r B is the Shannon ionic radius of B and r B' is the ionic radius of B', n A,Av is the weighted average oxidation state of A and A', defined in formula, n A,Av = x ⋅ n A + 1 − x ⋅ n A ′ ⋅ y, where n A is the oxidation state of A and n A' is the oxidation state of A', r A,Av is the weighted average ionic radius of A and A', defined in formula, r A,Av = x ⋅ r A + 1 − x ⋅ r A ′ ⋅ y, where r A is the Shannon ionic radius of A and r A' is the ionic radius of A', wherein the ceramic material is characterized by 1.67 ≤ SF ≤ 2.8. a. a ceramic material of formula [(A x)A' (1-x)] y B z B' (1-z) O 3-δ where each of A and A', independently, is a rare earth or alkaline earth metal, x is in the range of 0 to 1, y is A-site occupancy and is in the range of 0.5 to 0.99, each of B and B', independently, is a transition metal, z is in the range of 0 to 1, O is oxygen, and δ is oxygen non-stoichiometry and is in the range of -1 to 1, and b. a second material being a metallic Ni, a metallic alloy of Fe and Ni, or a hydroxide of Ni and Fe; wherein stability factor of the ceramic material is defined in formula, SF = r O ⋅ 3 − δ 3 r B, av − n A, Av n A, Av − r A, av / r B, av ln r A, av r B, av where r o is the Shannon ionic radius of oxide ion (O 2-), r B,av is the weighted average Shannon ionic radius of B and B', defined in formula, r B,Av = z ⋅ r B + 1 − z ⋅ r B ′ where r B is the Shannon ionic radius of B and r B' is the ionic radius of B', n A,Av is the weighted average oxidation state of A and A', defined in formula, n A,Av = x ⋅ n A + 1 − x ⋅ n A ′ ⋅ y, where n A is the oxidation state of A and n A' is the oxidation state of A', r A,Av is the weighted average ionic radius of A and A', defined in formula, r A,Av = x ⋅ r A + 1 − x ⋅ r A ′ ⋅ y, where r A is the Shannon ionic radius of A and r A' is the ionic radius of A', wherein the ceramic material is characterized by 1.67 ≤ SF ≤ 2.8.
A pneumatic brake system for a commercial vehicle, said system comprising: - at least one air-actuated spring brake configured to be arranged to at least one wheel of the vehicle and configured to immobilize the commercial vehicle when a parking brake function of the pneumatic brake system is applied, - a protection valve, - a parking brake unit, - a network of pipelines, - at least a first and a second air tank, both configured to be pressurized, for providing, via a respective first air outlet (4a, 5a), air of the pneumatic brake system, - a first subnetwork of pipelines, comprising pipelines being configured to be pressurized at all times, - a second subnetwork of pipelines, comprising at least one pipeline being configured to be non-pressurized when the parking brake function is applied, - a relay valve for the parking brake unit, the relay valve being configured to be in fluid communication with ∘ the first and the second tanks via the protection valve by means of the pipelines of the first subnetwork, ∘ the parking brake unit by means of the pipelines of the second subnetwork, ∘ the at least one air-actuated spring brake by means of the pipelines of the second subnetwork, wherein said first subnetwork of pipelines comprises pipelines establishing fluid communication between the first and the second tanks and the parking brake unit wherein the direction of air flow in these pipelines is configured to be controlled by at least one thereto associated valve, characterized In that the pneumatic brake system comprises a stop valve associated with the parking brake for prevention of inopportune application or release of the parking brake. - at least one air-actuated spring brake configured to be arranged to at least one wheel of the vehicle and configured to immobilize the commercial vehicle when a parking brake function of the pneumatic brake system is applied, - a protection valve, - a parking brake unit, - a network of pipelines, - at least a first and a second air tank, both configured to be pressurized, for providing, via a respective first air outlet (4a, 5a), air of the pneumatic brake system, - a first subnetwork of pipelines, comprising pipelines being configured to be pressurized at all times, - a second subnetwork of pipelines, comprising at least one pipeline being configured to be non-pressurized when the parking brake function is applied, - a relay valve for the parking brake unit, the relay valve being configured to be in fluid communication with ∘ the first and the second tanks via the protection valve by means of the pipelines of the first subnetwork, ∘ the parking brake unit by means of the pipelines of the second subnetwork, ∘ the at least one air-actuated spring brake by means of the pipelines of the second subnetwork, ∘ the first and the second tanks via the protection valve by means of the pipelines of the first subnetwork, ∘ the parking brake unit by means of the pipelines of the second subnetwork, ∘ the at least one air-actuated spring brake by means of the pipelines of the second subnetwork,
An accelerator pedal device, comprising: a bracket that can be provided on a floor on which a driver's seat of a vehicle is disposed; a mount including a fitting portion extending in a vehicle width direction and having an annular shape a part of which is open when viewed from a side direction of the vehicle, and a first engagement portion provided in the fitting portion, the mount being assembled to the bracket; a pedal including a fitted portion that is fitted to the fitting portion by sliding the fitted portion toward one side in the vehicle width direction, and an engaged portion that is provided in the fitted portion and that restricts movement of the fitted portion toward another side in the vehicle width direction by engaging with the first engagement portion, the pedal being applied with depression force; and a restraint portion that contacts the fitting portion and restrains the first engagement portion from being displaced in a direction away from the fitted portion, characterized in that the first engagement portion is an engagement hole and the engaged portion is an engagement hook portion, wherein the engaged portion has a stop surface that is disposed facing an inner peripheral surface of the engagement hole and contacts the inner peripheral surface of the engagement hole, whereby coming-off of the fitted portion from the fitting portion toward the left side of the vehicle is restrained. a bracket that can be provided on a floor on which a driver's seat of a vehicle is disposed; a mount including a fitting portion extending in a vehicle width direction and having an annular shape a part of which is open when viewed from a side direction of the vehicle, and a first engagement portion provided in the fitting portion, the mount being assembled to the bracket; a pedal including a fitted portion that is fitted to the fitting portion by sliding the fitted portion toward one side in the vehicle width direction, and an engaged portion that is provided in the fitted portion and that restricts movement of the fitted portion toward another side in the vehicle width direction by engaging with the first engagement portion, the pedal being applied with depression force; and a restraint portion that contacts the fitting portion and restrains the first engagement portion from being displaced in a direction away from the fitted portion,
A method for cutting pile warp yarns (I, II, III, IV, V) in a double carpet weaving loom where pile warp yarns selectively extend between an upper ground fabric and a lower ground fabric, said warp yarns being cut by a cutting device including a knife carriage which, in order to perform cutting operations, has translation movements (F, B) from a first side (G1L) of a ground fabric to a second side (G1R) of the ground fabric, each translation movement taking place within a pick period (P1-P9), that is within a time interval between two weft yarn insertions, outside the time interval where the reed is moving for beating the weft yarns, characterized in that each translation movement (F, B) of the knife carriage is defined and controlled on a pick by pick basis, individually for each pick (P1-P9).
Method for the production of an adhesive tape, in particular a wrapping tape for the wrapping of cables in automobiles, whereupon - a tape-form substrate is provided, with a UV-crosslinkable adhesive coating with an application weight of 15 g/m 2 to 250 g/m 2, whereupon furthermore - the adhesive coating has, in addition to an acrylate-based pressure-sensitive adhesive with polymerised or mixed-in photoinitiators, at least one additive, wherein - the photoinitiators are present at a grammage of between 0.05% by weight and 5% by weight, and the additive in the form of a resin admixture is present at a grammage of up to 40% by weight, in each case in the adhesive coating, whereupon in addition - for purposes of crosslinkage the photoinitiators are activated by irradiation with a UV-light source emitting in the range of their activation wavelength of between 250 nm and 320 nm, preferably of between 250 nm and 260 nm, whereupon furthermore - the additive has an extinction of 0.1 to 0.7, at least in the range of the activation wavelength of the photoinitiators, and whereupon - the additive, which is in the form of a resin admixture, is produced on the basis of an only partially hydrogenated abietic acid ester, and - as the UV-light source, one such that is LED-based is used. - a tape-form substrate is provided, with a UV-crosslinkable adhesive coating with an application weight of 15 g/m 2 to 250 g/m 2, whereupon furthermore - the adhesive coating has, in addition to an acrylate-based pressure-sensitive adhesive with polymerised or mixed-in photoinitiators, at least one additive, wherein - the photoinitiators are present at a grammage of between 0.05% by weight and 5% by weight, and the additive in the form of a resin admixture is present at a grammage of up to 40% by weight, in each case in the adhesive coating, whereupon in addition - for purposes of crosslinkage the photoinitiators are activated by irradiation with a UV-light source emitting in the range of their activation wavelength of between 250 nm and 320 nm, preferably of between 250 nm and 260 nm, whereupon furthermore - the additive has an extinction of 0.1 to 0.7, at least in the range of the activation wavelength of the photoinitiators, and whereupon - the additive, which is in the form of a resin admixture, is produced on the basis of an only partially hydrogenated abietic acid ester, and - as the UV-light source, one such that is LED-based is used.
An energy management device, comprising: an electric power acquisition section for acquiring a power demand of a load; an assist control section for making, when all assist conditions defined for the power demand are satisfied, a selection from activation and deactivation of an assist operation for supplying electric power to the load from a power storage device provided separately from a power source; a notification control section for presenting information indicating that the assist conditions are satisfied on a notification device; an input acquisition section for acquiring an input from an operation device; and a condition setting section for setting the assist conditions through the input acquisition section, characterized in that the assist conditions comprise at least a time slot for permitting the electric power to be supplied from the power storage device to the load and a switching threshold value of the power demand for starting to supply the electric power from the power storage device to the load, when a time at which the acquired power demand exceeds the switching threshold value is included in the time slot. an electric power acquisition section for acquiring a power demand of a load; an assist control section for making, when all assist conditions defined for the power demand are satisfied, a selection from activation and deactivation of an assist operation for supplying electric power to the load from a power storage device provided separately from a power source; a notification control section for presenting information indicating that the assist conditions are satisfied on a notification device; an input acquisition section for acquiring an input from an operation device; and a condition setting section for setting the assist conditions through the input acquisition section, characterized in that the assist conditions comprise at least a time slot for permitting the electric power to be supplied from the power storage device to the load and a switching threshold value of the power demand for starting to supply the electric power from the power storage device to the load, when a time at which the acquired power demand exceeds the switching threshold value is included in the time slot.
Valve mechanism for an internal combustion engine, comprising: - a chamber having: ∘ at least one inlet, ∘ at least one fuel outlet (C1, C2), ∘ at least one air outlet and - a single-piece valve member housed in the chamber, the valve member being movable along an axis between: - a closed position (figure 2), wherein the valve member blocks the inlet, - an opened position (figure 3), wherein the valve member does not block neither the inlet nor the fuel outlet (C1, C2), and wherein the valve member blocks the air outlet, the valve mechanism being characterized in that the valve includes at least one by-pass (4a, 4b) having a first end (4.1) opening in the chamber on the side of the inlet, and a second end (4.2) opening in the chamber on the side of the air outlet, and in that, in an air-purge position, the valve member blocks the fuel outlet (C1, C2) and does not block the inlet nor the first and second ends (4.1, 4.2) of the by-pass (4a, 4b), so that a fluid can flow from the inlet along the by-pass (4a, 4b) and evacuates into the air outlet. - a chamber having: ∘ at least one inlet, ∘ at least one fuel outlet (C1, C2), ∘ at least one air outlet and ∘ at least one inlet, ∘ at least one fuel outlet (C1, C2), ∘ at least one air outlet and - a single-piece valve member housed in the chamber, the valve member being movable along an axis between: - a closed position (figure 2), wherein the valve member blocks the inlet, - an opened position (figure 3), wherein the valve member does not block neither the inlet nor the fuel outlet (C1, C2), and wherein the valve member blocks the air outlet, - a closed position (figure 2), wherein the valve member blocks the inlet, - an opened position (figure 3), wherein the valve member does not block neither the inlet nor the fuel outlet (C1, C2), and wherein the valve member blocks the air outlet,
A method of operating and cleaning a compressor, the method comprising: a. passing a first fluid through the compressor, said first fluid comprising gas from a separator, said compressor operating to compress the first fluid passed therethrough; b. mixing well fluid bypassed from upstream of the separator with said gas from the separator to produce a second fluid comprising gas and liquid, said gas and liquid being from at least one well; and c. passing the second fluid through the compressor, wherein said second fluid is passed through the compressor for a limited time period to clean a surface inside the compressor, said compressor operating to compress the second fluid passed therethrough. a. passing a first fluid through the compressor, said first fluid comprising gas from a separator, said compressor operating to compress the first fluid passed therethrough; b. mixing well fluid bypassed from upstream of the separator with said gas from the separator to produce a second fluid comprising gas and liquid, said gas and liquid being from at least one well; and c. passing the second fluid through the compressor, wherein said second fluid is passed through the compressor for a limited time period to clean a surface inside the compressor, said compressor operating to compress the second fluid passed therethrough.
A communication device comprising: circuitry configured to: perform radio communication with a terminal apparatus (200, 400) using a downlink subframe or an uplink subframe of a primary system; determine a communication resource which is usable by a secondary system, the communication resource is determined in the uplink subframe in preference over the downlink subframe; and transmit identification information of the determined communication resource to the terminal apparatus, wherein the primary system is corresponding to a first LTE-based radio communication system and the secondary system is corresponding to a second LTE-based radio communication system, and the terminal apparatus is configured to perform device-to-device communication with other terminals in the secondary system; and wherein the identification information is transmitted in system information of the first LTE-based radio communication system. circuitry configured to: perform radio communication with a terminal apparatus (200, 400) using a downlink subframe or an uplink subframe of a primary system; determine a communication resource which is usable by a secondary system, the communication resource is determined in the uplink subframe in preference over the downlink subframe; and transmit identification information of the determined communication resource to the terminal apparatus, perform radio communication with a terminal apparatus (200, 400) using a downlink subframe or an uplink subframe of a primary system; determine a communication resource which is usable by a secondary system, the communication resource is determined in the uplink subframe in preference over the downlink subframe; and transmit identification information of the determined communication resource to the terminal apparatus, wherein the primary system is corresponding to a first LTE-based radio communication system and the secondary system is corresponding to a second LTE-based radio communication system, and the terminal apparatus is configured to perform device-to-device communication with other terminals in the secondary system; and wherein the identification information is transmitted in system information of the first LTE-based radio communication system.
Operating device for a light-emitting means connected to the operating device, wherein the operating device comprises an interface via which external dimming values may be supplied to the operating device, and wherein the operating device is configured to convert the supplied dimming values into internal dimming values in accordance with an internal dimming characteristic, on the basis of which the control of the connected light-emitting means takes place, wherein the operating device has a control device (StE) which is configured so that an artificial maximum value for a performance parameter, or combinations of performance parameters, may be determined on the basis of an external command, for example via the interface characterized in that the control device is configured to adapt the internal dimming characteristic to the artificial maximum value, wherein the internal dimming values are spread over the range between 0% and the artificial maximum value.
An interference prevention apparatus, comprising an interference prevention module and a control module, wherein the control module is configured to send a working signal to the interference prevention module; the interference prevention module is configured to receive the working signal, and control a working state of a first component according to the working signal, wherein the first component is connected to the control module by using at least one first connection wire, the at least one first connection wire is divided into at least two segments by an interference prevention material, and the interference prevention material is connected to ground; and the interference prevention module is further configured to send a return current signal to the control module, wherein the return current signal flows to the control module through the interference prevention material, wherein the interference prevention material is adhered to a set position of the at least one first connection wire and the interference prevention material is an electrically conductive double-sided adhesive tape.
A chain bar guiding system for a wall chain saw, mainly for cutting concrete, comprising: a wall saw; a safety cover rotatably coupled to a cover anchor mechanism coupled to said wall saw; a chain saw assembly housing slidingly coupled to the safety cover the chain saw assembly housing coupled to a chain bar and rotatably coupled to a saw arm, wherein the chain saw assembly housing is slidably connected to the safety cover to slide when the saw arm is pivoted. a wall saw; a safety cover rotatably coupled to a cover anchor mechanism coupled to said wall saw; a chain saw assembly housing slidingly coupled to the safety cover the chain saw assembly housing coupled to a chain bar and rotatably coupled to a saw arm, wherein the chain saw assembly housing is slidably connected to the safety cover to slide when the saw arm is pivoted.
A hand-holdable vacuum cleaner (602,702,802) comprising: a motor (16,216) coupled to a fan (18,218) for generating air flow; a body (604,704,804) with a handle (606,706,806); a dirty air duct (610,710,810) with a dirty air inlet (612,712,812); a battery pack (900,910,920) housing at least one rechargeable cell (917,927) for powering the motor; and a dirt separating means (8,208) located in a path of the air flow generated by the fan, wherein the dirt separating means comprises: a hollow substantially cylindrical dirt container (120,130,320,330) with a longitudinal central axis (21,221); and an air inlet port (126,326) to the dirt container, wherein the air inlet port is in communication with the dirty air duct characterised in that the battery pack has a curvilinear or annular cross-sectional profile transverse to the central axis and a curvilinear inner wall (902,922) embracing the dirt container. a motor (16,216) coupled to a fan (18,218) for generating air flow; a body (604,704,804) with a handle (606,706,806); a dirty air duct (610,710,810) with a dirty air inlet (612,712,812); a battery pack (900,910,920) housing at least one rechargeable cell (917,927) for powering the motor; and a dirt separating means (8,208) located in a path of the air flow generated by the fan, wherein the dirt separating means comprises: a hollow substantially cylindrical dirt container (120,130,320,330) with a longitudinal central axis (21,221); and an air inlet port (126,326) to the dirt container, a hollow substantially cylindrical dirt container (120,130,320,330) with a longitudinal central axis (21,221); and an air inlet port (126,326) to the dirt container, wherein the air inlet port is in communication with the dirty air duct characterised in that the battery pack has a curvilinear or annular cross-sectional profile transverse to the central axis and a curvilinear inner wall (902,922) embracing the dirt container.