mhurhangee/ep-ind-claims huggingface dataset:
Process for curing a coating on a work piece, characterised in that the work piece is non-planar and is provided with a coating which is curable by electromagnetic radiation, in that the work piece is disposed in a plasma generation area, and in that in the plasma generation area a plasma is generated by the input of electromagnetic radiation into the plasma generation area by means of at least one input device (132, 132'), in which plasma an electromagnetic radiation suitable for curing the coating is generated, by means of which the coating is at least partially cured.
An aircraft air filtration and volatile organic compound removal unit, comprising: an air duct having a longitudinal axis, an air inlet at one end, and air outlet at the other end; a plurality of baffles, each having a plurality of airflow spaces allowing airflow therethrough, disposed at spaced locations within the duct between the air inlet and air outlet, the baffles being generally transverse to the longitudinal axis; a plurality of ultraviolet light emitting diodes mounted on each baffle; and a porous and permeable photocatalytic oxidation filter module disposed between each pair of baffles, generally transverse to the longitudinal axis, such that air flows through the PCO filter module; wherein each PCO filter module comprises a stack of a plurality of catalyst-loaded filters, each filter containing one or more catalysts comprising titanium dioxide (TiO 2), TiO 2 doped with iron (Fe-TiO 2), TiO 2 doped with carbon (C-TiO 2), or combinations thereof which, when illuminated by UV light, are operative to chemically reduce VOCs to non-VOC molecules. an air duct having a longitudinal axis, an air inlet at one end, and air outlet at the other end; a plurality of baffles, each having a plurality of airflow spaces allowing airflow therethrough, disposed at spaced locations within the duct between the air inlet and air outlet, the baffles being generally transverse to the longitudinal axis; a plurality of ultraviolet light emitting diodes mounted on each baffle; and a porous and permeable photocatalytic oxidation filter module disposed between each pair of baffles, generally transverse to the longitudinal axis, such that air flows through the PCO filter module; wherein each PCO filter module comprises a stack of a plurality of catalyst-loaded filters, each filter containing one or more catalysts comprising titanium dioxide (TiO 2), TiO 2 doped with iron (Fe-TiO 2), TiO 2 doped with carbon (C-TiO 2), or combinations thereof which, when illuminated by UV light, are operative to chemically reduce VOCs to non-VOC molecules.
A lubricating oil composition comprising: a major amount of an oil of lubricating viscosity having a kinematic viscosity at 100°C in a range of 1.5 to 35 mm 2 /s; and an anti-wear mixture comprising: 0.001 to 20 wt. % of one or more ashless succinimide dispersants, based on the total weight of the lubricating oil composition, and 0.001 to 20 wt. % of an alkyl phosphonic acid having a structure given by wherein R is a C 3 -C 20 hydrocarbyl group, based on the total weight of the lubricating oil composition; initial pH of the anti-wear mixture is between 5.0 - 9.5 as measured by ASTM D664; wherein the lubricating oil composition is free of zinc. a major amount of an oil of lubricating viscosity having a kinematic viscosity at 100°C in a range of 1.5 to 35 mm 2 /s; and an anti-wear mixture comprising: 0.001 to 20 wt. % of one or more ashless succinimide dispersants, based on the total weight of the lubricating oil composition, and 0.001 to 20 wt. % of an alkyl phosphonic acid having a structure given by wherein R is a C 3 -C 20 hydrocarbyl group, based on the total weight of the lubricating oil composition; initial pH of the anti-wear mixture is between 5.0 - 9.5 as measured by ASTM D664;
A method for automatically starting a wind turbine after an outage of an electrical supply grid, comprising the steps of: acquiiing at least one measurement value as to a climatic variable in the wind turbine during the outage of the electrical supply grid; recording said at least one acquired measurement value; and, generating a warning signal prior to a starting of the wind turbine when said at least one measurement value recorded during the outage of the electrical supply grid exceeds a predetermined maximum value or drops below a predetermined minimum value, wherein said at least one measurement value is acquired in spatial proximity to a component of the wind turbine and the predetermined maximum and/or minimum values correspond to limit values for permissible storage conditions of the component. acquiiing at least one measurement value as to a climatic variable in the wind turbine during the outage of the electrical supply grid; recording said at least one acquired measurement value; and, generating a warning signal prior to a starting of the wind turbine when said at least one measurement value recorded during the outage of the electrical supply grid exceeds a predetermined maximum value or drops below a predetermined minimum value
An electronic device comprising: a housing configuring at least a portion of an exterior of the electronic device; a display module mounted on the housing; a transparent plate configuring at least a portion of a front surface of the electronic device and fixed to the housing; and a paint film covering a partial area comprising an edge of the transparent plate, wherein the transparent plate comprises a first surface facing the front surface, a second surface facing an opposite direction to the first surface, and a third surface interconnecting the first surface and the second surface and surrounding the transparent plate, and wherein the paint film comprises: a first printed layer covering a first area (a) of the second surface and at least a portion of the third surface of the transparent plate; and a second printed layer stacked on the first printed layer, characterized in that, the second printed layer covers a second area (b) of the second surface that is wider than the first area (a); and a third printed layer is stacked on the second printed layer, the third printed layer covering a third area (c) of the second surface narrower than the second area (b). a housing configuring at least a portion of an exterior of the electronic device; a display module mounted on the housing; a transparent plate configuring at least a portion of a front surface of the electronic device and fixed to the housing; and a paint film covering a partial area comprising an edge of the transparent plate, wherein the transparent plate comprises a first surface facing the front surface, a second surface facing an opposite direction to the first surface, and a third surface interconnecting the first surface and the second surface and surrounding the transparent plate, and wherein the paint film comprises: a first printed layer covering a first area (a) of the second surface and at least a portion of the third surface of the transparent plate; and a second printed layer stacked on the first printed layer, a first printed layer covering a first area (a) of the second surface and at least a portion of the third surface of the transparent plate; and a second printed layer stacked on the first printed layer, characterized in that, the second printed layer covers a second area (b) of the second surface that is wider than the first area (a); and a third printed layer is stacked on the second printed layer, the third printed layer covering a third area (c) of the second surface narrower than the second area (b).
A method performed by a network node (110, 111, 101) for enabling channel estimation in a wireless communications network, wherein the wireless communications network comprises at least a first and a second Access Point, AP, (110, 111) having overlapping cells (115, 116) using contention-based transmission resources of the same frequency, the method comprising: controlling the first AP to transmit information indicating that wireless devices served by the first AP are not to contend for the contention-based transmission resources when the second AP is transmitting a Null Data Packet, NDP; and controlling the second AP to transmit a NDP. controlling the first AP to transmit information indicating that wireless devices served by the first AP are not to contend for the contention-based transmission resources when the second AP is transmitting a Null Data Packet, NDP; and controlling the second AP to transmit a NDP.
A moving robot comprising: a travel unit configured to move a body; an image acquisition unit configured to acquire a surrounding image of the body; a storage unit configured to store a plurality of continuous images acquired by the image acquisition unit, a sensor unit having one or more sensors configured to detect an obstacle while the body moves; a controller configured to: upon detection of an obstacle by the sensor unit, recognize an attribute of the obstacle based on an image acquired by the image acquisition unit, and control driving of the travel unit based on the recognized attribute of the obstacle; and a sound output unit configured to: output preset sound when the recognized attribute of the obstacle indicates a movable obstacle; characterized in that the controller is further configured to: upon detection of an obstacle by the sensor unit, based on a moving direction and a speed of the body, select an image captured at a particular point in time before the obstacle is detected by the sensor unit from among the plurality of continuous images. a travel unit configured to move a body; an image acquisition unit configured to acquire a surrounding image of the body; a storage unit configured to store a plurality of continuous images acquired by the image acquisition unit, a sensor unit having one or more sensors configured to detect an obstacle while the body moves; a controller configured to: upon detection of an obstacle by the sensor unit, recognize an attribute of the obstacle based on an image acquired by the image acquisition unit, and control driving of the travel unit based on the recognized attribute of the obstacle; and a sound output unit configured to: output preset sound when the recognized attribute of the obstacle indicates a movable obstacle; characterized in that the controller is further configured to: upon detection of an obstacle by the sensor unit, based on a moving direction and a speed of the body, select an image captured at a particular point in time before the obstacle is detected by the sensor unit from among the plurality of continuous images. upon detection of an obstacle by the sensor unit, based on a moving direction and a speed of the body, select an image captured at a particular point in time before the obstacle is detected by the sensor unit from among the plurality of continuous images.
An automated locomotive spotting system for a locomotive including a tractive effort mechanism for moving the locomotive along a track, the system comprising: a locomotive controller configured to control the tractive effort mechanism to move the locomotive along the track, the locomotive controller including an odometer configured to monitor a distance traversed by the locomotive along the track, the locomotive controller configured to: receive a requested spotting distance value; control movement of the locomotive along the track via the tractive effort mechanism in response to receiving the requested spotting distance value; monitor, by the odometer, the distance traversed by the locomotive along the track; and inhibit movement of the locomotive in response to the monitored odometer distance indicating the locomotive has traversed the requested spotting distance; wherein the system further comprises a remote control device in wireless communication with the locomotive controller, and wherein the remote control device is configured to transmit the requested spotting distance value to the locomotive controller, the remote control device comprises a track signal switch or sensor, the locomotive controller is configured to receive the requested spotting distance value in response to the locomotive crossing the track signal switch or sensor, and the requested spotting distance value includes a specified distance corresponding to a location of the track signal switch or sensor. receive a requested spotting distance value; control movement of the locomotive along the track via the tractive effort mechanism in response to receiving the requested spotting distance value; monitor, by the odometer, the distance traversed by the locomotive along the track; and inhibit movement of the locomotive in response to the monitored odometer distance indicating the locomotive has traversed the requested spotting distance; wherein the system further comprises a remote control device in wireless communication with the locomotive controller, and wherein the remote control device is configured to transmit the requested spotting distance value to the locomotive controller, the remote control device comprises a track signal switch or sensor, the locomotive controller is configured to receive the requested spotting distance value in response to the locomotive crossing the track signal switch or sensor, and the requested spotting distance value includes a specified distance corresponding to a location of the track signal switch or sensor.
An electrical box for flush mounting in an opening formed in a hollow partition panel, said electrical box comprising: • a side wall that defines a reception housing for receiving an accessory module and that is open at the front; • a shoulder that is adapted to bear against the front face of said panel and that is carried by a front portion of the side wall; and • an annular portion that is situated between the front portion and a rear portion of the side wall, that is made out of the same material as said shoulder, and that is axially deformable; said electrical box being characterized in that: • catch means for catching against the rear of said panel are carried by the rear portion of the side wall, and comprise at least one flap that is adapted to pivot between a retracted position in which it does not form an obstacle to the electrical box being engaged in said opening and a deployed position in which it catches against the rear of said panel; each flap being situated in an opening formed in the rear portion of the side wall, and being connected to the edge of the opening, over at least a portion of its periphery, via a gasket that is made out of a material that is more flexible than the material of the annular portion, the gasket interrupting the annular portion and presenting a bulge that is situated in the interruption. • a side wall that defines a reception housing for receiving an accessory module and that is open at the front; • a shoulder that is adapted to bear against the front face of said panel and that is carried by a front portion of the side wall; and • an annular portion that is situated between the front portion and a rear portion of the side wall, that is made out of the same material as said shoulder, and that is axially deformable; • catch means for catching against the rear of said panel are carried by the rear portion of the side wall, and comprise at least one flap that is adapted to pivot between a retracted position in which it does not form an obstacle to the electrical box being engaged in said opening and a deployed position in which it catches against the rear of said panel;
A method performed in a battery module comprising a first charging terminal and a second charging terminal for connecting the battery module to a power source, wherein the battery module further comprises a battery cell arrangement having a first terminal and a second terminal, wherein the first terminal of the battery cell arrangement is connected to the first charging terminal, and wherein the battery module further comprises a direct current to direct current, DC-DC, converter having a first input terminal connected to the second terminal of the battery cell arrangement, a second input terminal connected to the second charging terminal, and an output terminal connected to the first terminal of the battery cell arrangement, the method comprising: in response to detection of a first condition at the battery module, switching to a mode in which a voltage applied at the first and second charging terminals for charging the battery cell arrangement is divided between a voltage at the battery cell arrangement and a voltage at the first and second input terminals (511, 512) of the DC-DC converter, and in which a charge current of the battery cell arrangement corresponds to a sum of a current provided between the first and second input terminals of the converter and a current provided at the output terminal of the converter.
A multifunctional seating unit, comprising a frame constituted by a pair of supports (3a, 3b) which are crossed in an X-like arrangement, wherein each one of said supports (3a, 3b) defines a pair of first and second legs (4a, 4b, 5a, 5b), pivoted in an X-like arrangement, and a first plate and a second plate (6, 7) associated with a first armrest and a second armrest (16, 17), said frame comprising a parallelogram mechanism adapted to allow the partial raising/lowering and the partial narrowing/widening of said first and second armrests (16, 17) and of a seat which constitute said seating unit and the partial narrowing/widening of said pair of first and second legs (4a, 4b, 5a, 5b), said seating unit comprising a back characterized in that the back is composed of a first case and a second case (26a, 26b) which are lateral and collapsible onto a fixed central support.
An air discharge valve, comprising: a pipe connection base comprising at least one pipe member which includes an orifice; a rotary member axially connected with the pipe connection base, the rotary member being rotatable relative to the pipe connection base about a rotation axis and having at least one operational part; at least one seal member connected with the rotary member and corresponding to the orifice; and a buffer member axially connected with the pipe connection base, the buffer member being corresponded to the pipe connection base and driving the rotary member to rotate about the rotation axis, the buffer member comprising at least one corresponding operational part, the corresponding operational part of the buffer member being spaced apart from the operational part of the rotary member by a rotation buffering space to regulate the buffer member driving the rotation of the rotary member about the rotation axis; wherein the seal member correspondingly closes the orifice when the rotary member is arranged at a first orientation relative to the pipe connection base, and wherein the seal member is removed from the orifice when the rotary member is driven by the buffer member and rotated to a second orientation relative to the pipe connection base such that air from the pipe member is discharged from the orifice. a pipe connection base comprising at least one pipe member which includes an orifice; a rotary member axially connected with the pipe connection base, the rotary member being rotatable relative to the pipe connection base about a rotation axis and having at least one operational part; at least one seal member connected with the rotary member and corresponding to the orifice; and a buffer member axially connected with the pipe connection base, the buffer member being corresponded to the pipe connection base and driving the rotary member to rotate about the rotation axis, the buffer member comprising at least one corresponding operational part, the corresponding operational part of the buffer member being spaced apart from the operational part of the rotary member by a rotation buffering space to regulate the buffer member driving the rotation of the rotary member about the rotation axis;
A method for monitoring the safe operation of potential runaway reactions performed in a non-continuous indirectly cooled semibatch reactor, comprising the steps of: - providing at least one reactant in said reactor; - feeding at least one coreactant; - measuring process variables, wherein said process variables comprise at least the temperature of the reaction mass, the temperature of the feed stream, the inlet and outlet temperatures (T3, T4) of a coolant of said reactor, the flowrate of said coreactant, and the flowrate of said at least one coolant; - calculating an integral parameter of the conversion degree of said coreactant on the basis of said measured process variables, said integral parameter being the ratio between the reacted coreactant and the fed coreactant, wherein the reacted coreactant is expressed in terms of energy uses as a function of the enthalpy of the reaction mass and of the coolant, and wherein the fed coreactant is expressed in terms of overall energy sources as a function of the reaction enthalpy; and - checking if said integral parameter is within a predetermined target range, wherein said integral parameter is equal to: X = m C ^ P 0 T − T 0 + m C ^ P fed T − T dos + ∫ 0 t m ̇ C ^ P ΔT cool dt − Δ H ^ r m fed ω A / ν A × 100 where m indicates the mass, ṁ indicates the mass flowrate, Ĉ p is the mass heat capacity at constant pressure, T is the reactor temperature, ΔT is the coolant temperature variation, ΔH is the reaction enthalpy, ω A is the mass fraction of said coreactant, ν A is the stochiometric coefficient of said coreactant, O refers to the beginning of the feeding of said coreactant, T o is the reactor temperature at the beginning of the supply period, cool refers to the coolant of said reactor, and dos refers to the dosed coreactant. - providing at least one reactant in said reactor; - feeding at least one coreactant; - measuring process variables, wherein said process variables comprise at least the temperature of the reaction mass, the temperature of the feed stream, the inlet and outlet temperatures (T3, T4) of a coolant of said reactor, the flowrate of said coreactant, and the flowrate of said at least one coolant; - calculating an integral parameter of the conversion degree of said coreactant on the basis of said measured process variables, said integral parameter being the ratio between the reacted coreactant and the fed coreactant, wherein the reacted coreactant is expressed in terms of energy uses as a function of the enthalpy of the reaction mass and of the coolant, and wherein the fed coreactant is expressed in terms of overall energy sources as a function of the reaction enthalpy; and - checking if said integral parameter is within a predetermined target range,