mhurhangee/ep-ind-claims huggingface dataset:
A method for determining a wind turbine layout in a wind power plant wherein a plurality of wind turbines generate a combined power output, said method comprising: identifying constraints of a power plant site and defining at least one region (A-C) in the site for placement of a plurality of wind turbines; determining wind state at the region in the site; determining actual wind conditions at possible locations in the region by modeling the wind state with wake effects at the respective locations, the wake effects resulting from cumulative placement of other wind turbines at various locations in the region; selecting individual wind turbine configuration and location within the region as a function of actual wind conditions at each individual location to enhance power output of the individual wind turbines, the selection of turbine configuration including selection of a turbine hub height that minimizes wake loss of the individual wind turbines as a function of the actual wind conditions at the turbine locations; and generating a wind turbine layout plan based on individual wind turbine configuration and location. identifying constraints of a power plant site and defining at least one region (A-C) in the site for placement of a plurality of wind turbines; determining wind state at the region in the site; determining actual wind conditions at possible locations in the region by modeling the wind state with wake effects at the respective locations, the wake effects resulting from cumulative placement of other wind turbines at various locations in the region; selecting individual wind turbine configuration and location within the region as a function of actual wind conditions at each individual location to enhance power output of the individual wind turbines, the selection of turbine configuration including selection of a turbine hub height that minimizes wake loss of the individual wind turbines as a function of the actual wind conditions at the turbine locations; and generating a wind turbine layout plan based on individual wind turbine configuration and location.
Apparatus (5, 5a, 5b, 5c) for load flow control of a direct current in a branch (2, 3, 4) of a DC voltage network node comprising a longitudinal voltage source, which has means for coupling in or coupling out electric power, characterized in that the means for coupling in and coupling out electric power are coupled via a low-voltage busbar to means for coupling in and coupling out electric power of a further apparatus (5, 5a, 5b, 5c) for load flow control, which further apparatus is arranged in another branch (2, 3, 4) of the same DC voltage network node.
Compressor with an acoustic attenuator device, being comprised by a hollow body closed by a cover, forming a structure provided with at least one inlet hole and one outlet hole, CHARACTERIZED in that there is provided between said hollow body and said cover at least one intermediate body which divides said structure into at least two acoustic chambers (A,A'), said at least one intermediate body is formed by a platform provided with at least one connecting channel in fluid communication with said acoustic chambers (A, A'), said at least one connecting channel further surrounds an outlet channel which is interconnected with said outlet hole.
A display apparatus, comprising: a display panel configured to display an image by emitting light; a supporting member disposed on a rear surface of the display panel; at least two sound generating devices (200, 1200) disposed between the supporting member and the display panel, wherein each of the sound generating devices (200, 1200) is configured to generate sound by vibrating the display panel; and a plurality of partitions (700, 710, 750, 700', 731', 741') disposed between the display panel and the supporting member and provided at a rear surface of the display panel at a predetermined interval from the sound generating devices (200, 1200), wherein the partitions (700, 710, 750, 700', 731', 741') have different compression force deflections or different densities, and wherein the partitions (700, 710, 750, 700', 731', 741') are disposed to surround the sound generating devices (200, 1200) and are configured to focus sound vibration generated by the sound generating devices (200, 1200) to a predetermined area of the display panel or to divide an entire area of the display panel into several areas for vibrating the divided areas of the display panel. a display panel configured to display an image by emitting light; a supporting member disposed on a rear surface of the display panel; at least two sound generating devices (200, 1200) disposed between the supporting member and the display panel, wherein each of the sound generating devices (200, 1200) is configured to generate sound by vibrating the display panel; and a plurality of partitions (700, 710, 750, 700', 731', 741') disposed between the display panel and the supporting member and provided at a rear surface of the display panel at a predetermined interval from the sound generating devices (200, 1200), wherein the partitions (700, 710, 750, 700', 731', 741') have different compression force deflections or different densities, and wherein the partitions (700, 710, 750, 700', 731', 741') are disposed to surround the sound generating devices (200, 1200) and are configured to focus sound vibration generated by the sound generating devices (200, 1200) to a predetermined area of the display panel or to divide an entire area of the display panel into several areas for vibrating the divided areas of the display panel.
A feature extracting element comprising: a plurality of light-receiving elements that are arrayed two-dimensionally and convert entered light to electrical charges; a convolution processing unit for performing convolution operation on signals based on the electrical charges that are converted respectively by the plurality of light-receiving elements, and a pooling processing unit to sample a signal that is output from the convolution processing unit, based on a predetermined condition, and the signals that are pooling-processed are output to outside, the feature extracting element further comprising: a connection wiring to pass the sampled signal to the convolution processing unit, and further comprising: a light-receiving substrate including the plurality of light-receiving elements that are two-dimensionally arrayed; and at least one other substrate that is laminated on the light-receiving substrate and includes the convolution processing unit and the pooling processing unit, the feature extracting element comprising: a plurality of the other substrates; wherein the convolution processing unit and the pooling processing unit each are provided in substrates different from each other among the plurality of other substrates, and the connection wiring includes a through-electrode to connect the substrates different from each other. a plurality of light-receiving elements that are arrayed two-dimensionally and convert entered light to electrical charges; a convolution processing unit for performing convolution operation on signals based on the electrical charges that are converted respectively by the plurality of light-receiving elements, and a pooling processing unit to sample a signal that is output from the convolution processing unit, based on a predetermined condition, and the signals that are pooling-processed are output to outside, the feature extracting element further comprising: a connection wiring to pass the sampled signal to the convolution processing unit, and further comprising: a light-receiving substrate including the plurality of light-receiving elements that are two-dimensionally arrayed; and at least one other substrate that is laminated on the light-receiving substrate and includes the convolution processing unit and the pooling processing unit, the feature extracting element comprising: a plurality of the other substrates; wherein the convolution processing unit and the pooling processing unit each are provided in substrates different from each other among the plurality of other substrates, and the connection wiring includes a through-electrode to connect the substrates different from each other. a plurality of the other substrates; wherein the convolution processing unit and the pooling processing unit each are provided in substrates different from each other among the plurality of other substrates, and the connection wiring includes a through-electrode to connect the substrates different from each other.
An LED-based light comprising: an elongate housing having a longitudinal axis and a vertical axis X, the housing defined by a base and two canted outer walls meeting at a rounded crown connecting the outer walls opposite the base, the housing defining an outer periphery of the LED-based light and a cavity; wherein the housing is defined by an arced base, a first arced canted outer wall, and a second arced canted outer wall, wherein the arced base, the first arced canted outer wall, and the second arced canted outer wall form a triangle, an LED circuit board on which a plurality of LEDs are located, the LED circuit board positioned within the cavity, wherein the LED circuit board faces the rounded crown; and end caps positioned at opposite ends of the housing, each end cap having an open end to receive the housing and a closed end, characterized in that each end cap comprises a respective bi-pin connector, the bi-pin connectors configured to physically connect to a fluorescent light fixture and sockets, and in that at least one of the closed end of the end caps has a tapered surface tapering toward the open end, wherein the tapered surface tapers towards the open end at a corner opposite the base of the housing and away from the closed end, giving the closed end of the end cap a domed shaped configuration. an elongate housing having a longitudinal axis and a vertical axis X, the housing defined by a base and two canted outer walls meeting at a rounded crown connecting the outer walls opposite the base, the housing defining an outer periphery of the LED-based light and a cavity; wherein the housing is defined by an arced base, a first arced canted outer wall, and a second arced canted outer wall, wherein the arced base, the first arced canted outer wall, and the second arced canted outer wall form a triangle, wherein the housing is defined by an arced base, a first arced canted outer wall, and a second arced canted outer wall, wherein the arced base, the first arced canted outer wall, and the second arced canted outer wall form a triangle, an LED circuit board on which a plurality of LEDs are located, the LED circuit board positioned within the cavity, wherein the LED circuit board faces the rounded crown; and end caps positioned at opposite ends of the housing, each end cap having an open end to receive the housing and a closed end, characterized in that each end cap comprises a respective bi-pin connector, the bi-pin connectors configured to physically connect to a fluorescent light fixture and sockets, and in that at least one of the closed end of the end caps has a tapered surface tapering toward the open end, wherein the tapered surface tapers towards the open end at a corner opposite the base of the housing and away from the closed end, giving the closed end of the end cap a domed shaped configuration.
Use of shaped bodies for producing closure constructions for the closing of cavities which occur in underground mining in the context of shaft constructions, and for producing dam constructions in section closure using loose spill or pneumatic packing, where the shaped bodies consist to an extent of at least 60 wt% of swellable cohesive material and the shaped bodies constitute the sole starting material for producing the closure or dam constructions.
A network configuration device for determining a wireless communication network realization in a plant where a process control system is provided, the device comprising: a network forming unit operative to: - receive a user selection of wireless endpoint devices and locations of these wireless endpoint devices in the plant, where each wireless endpoint device (30, 32, 34) is provided as at least one of a pair of endpoint devices (18, 30) that are to communicate with each other in relation to an automation function of the process control system, where one endpoint device in a pair performs processing and the other provides data for or receives results of said processing and each wireless device is enclosed in an area, the contour of which represents a minimum allowed signal strength, - obtain data communication requirements of the wireless endpoint devices (30, 32, 34), which data communication requirements are related to the automation functions and comprise at least one signal sent between a pair of endpoint devices and the time within which it has to reach its destination in order to be able to be used in the corresponding automation function, - determine a number of wireless relay devices (22, 23, 32) related to the locations of wireless endpoint devices (30, 32, 34) in the plant achieving a defined degree of radio coverage sufficient to satisfy the data communication requirements, and characterized in that it is further operative to - make, for every endpoint device pair, the contour of every wireless device in a path between two endpoint devices intersect the contour of a neighboring wireless device for obtaining the defined degree of radio coverage. - receive a user selection of wireless endpoint devices and locations of these wireless endpoint devices in the plant, where each wireless endpoint device (30, 32, 34) is provided as at least one of a pair of endpoint devices (18, 30) that are to communicate with each other in relation to an automation function of the process control system, where one endpoint device in a pair performs processing and the other provides data for or receives results of said processing and each wireless device is enclosed in an area, the contour of which represents a minimum allowed signal strength, - obtain data communication requirements of the wireless endpoint devices (30, 32, 34), which data communication requirements are related to the automation functions and comprise at least one signal sent between a pair of endpoint devices and the time within which it has to reach its destination in order to be able to be used in the corresponding automation function, - determine a number of wireless relay devices (22, 23, 32) related to the locations of wireless endpoint devices (30, 32, 34) in the plant achieving a defined degree of radio coverage sufficient to satisfy the data communication requirements, and characterized in that it is further operative to - make, for every endpoint device pair, the contour of every wireless device in a path between two endpoint devices intersect the contour of a neighboring wireless device for obtaining the defined degree of radio coverage.
An implantable sensor system comprising: a sensor lead including a lead body and a sensor portion, the sensor portion extending distally from the lead body and including at least a pressure-indicative transducer; and a first anchor located at a fixed position relative to the sensor portion, wherein the pressure-indicative transducer defines a directional sensing element configured to sense pressure information on a single side of a sensor portion, wherein the first anchor includes a pair of resilient arms that extend outwardly from opposite sides of, and generally perpendicular to, the lead body to prevent rotation of the directional sensing element to maintain the orientation of the single side relative to the tissue to be sensed. a sensor lead including a lead body and a sensor portion, the sensor portion extending distally from the lead body and including at least a pressure-indicative transducer; and a first anchor located at a fixed position relative to the sensor portion, wherein the pressure-indicative transducer defines a directional sensing element configured to sense pressure information on a single side of a sensor portion, wherein the first anchor includes a pair of resilient arms that extend outwardly from opposite sides of, and generally perpendicular to, the lead body to prevent rotation of the directional sensing element to maintain the orientation of the single side relative to the tissue to be sensed.
A method for processing a supply of post-consumer scrap linear low density polyethylene film or low density polyethylene film into near-virgin quality blown film product, comprising: shredding the supply of film in a shredder, wherein the plastic film is torn and delaminated, exposing surface area of the film; washing the shredded film in a water bath with an additive having a surfactant and agitating the shredded film in the bath, wherein contaminates are removed from the shredded film; grinding the washed film in a wet grinder and washing the ground film in a rotating friction washer, wherein additional contaminates are removed from the ground film; washing the ground film in a postwash sink float water bath, wherein the ground film is subjected to mechanical and hydraulic agitation in the postwash sink float water bath; drying the washed film; and compacting the dry, ground film, without the addition of water, into granulated objects of near-virgin quality blown film product. shredding the supply of film in a shredder, wherein the plastic film is torn and delaminated, exposing surface area of the film; washing the shredded film in a water bath with an additive having a surfactant and agitating the shredded film in the bath, wherein contaminates are removed from the shredded film; grinding the washed film in a wet grinder and washing the ground film in a rotating friction washer, wherein additional contaminates are removed from the ground film; washing the ground film in a postwash sink float water bath, wherein the ground film is subjected to mechanical and hydraulic agitation in the postwash sink float water bath; drying the washed film; and compacting the dry, ground film, without the addition of water, into granulated objects of near-virgin quality blown film product.
A transition signal generator for use in optimizing performance of a booster in time division duplex operation of a base station by monitoring a common signal path, which shares both a forward and a reverse link in time, and generating a forward-to-reverse link transition signal, the transition signal generator comprising: a signal sampler for sampling a time division duplex signal from the common signal path in a communications system; and a power detector for detecting a power of the sampled signal and generating an output indicative of the detected power of the sampled signal; characterized by a timing control unit for sampling the output of the power detector, measuring a forward signal detected width and a forward signal rising edge period, and generating a logic signal for controlling the booster, the logic signal indicating a direction of the sampled signal from the measured forward signal detected width and the forward signal rising edge period. a signal sampler for sampling a time division duplex signal from the common signal path in a communications system; and a power detector for detecting a power of the sampled signal and generating an output indicative of the detected power of the sampled signal; characterized by a timing control unit for sampling the output of the power detector, measuring a forward signal detected width and a forward signal rising edge period, and generating a logic signal for controlling the booster, the logic signal indicating a direction of the sampled signal from the measured forward signal detected width and the forward signal rising edge period.
A round bale press for agricultural stalk materials comprising a pressing chamber for pressing round bales, a wrapping device arranged downstream of the pressing chamber for wrapping a round bale with a wrapping material and having a wrapping table mounted pivotably on a main frame of the round bale press, wherein a tilting device is arranged downstream of the wrapping device, wherein the tilting device is provided for depositing a round bale on its end face on the ground, characterised in that there is provided a control unit, by which the round bale press is controllable in such a way that an ejection speed (v a) of a round bale at least from the wrapping device into the tilting device is adjustable in dependence on at least one operating parameter (P B).
A method of manufacturing a wind turbine rotor blade element, the method comprising the following steps: • providing a metal insert having a longitudinal axis, a circumferential outer surface and a joining portion for connecting the wind turbine rotor blade element to a wind turbine rotor hub or to another wind turbine rotor blade element, • wrapping the metal insert in a first fibre layer, • positioning the wrapped metal insert in a mould, • arranging a plurality of second fibre layers (42, 44) in the mould, • embedding the plurality of second fibre layers (42, 44) and the wrapped metal insert in a liquid plastics material, • curing the liquid plastics material in the mould, characterized by the following steps: • wrapping the metal insert in an interface layer of a curable material such that the interface layer is arranged between the circumferential outer surface and the first fibre layer, wherein the entire circumferential outer surface is covered by the interface layer which forms a closed layer substantially impermeable for the liquid plastics material, and • curing the interface layer in the mould together with the liquid plastics material. • providing a metal insert having a longitudinal axis, a circumferential outer surface and a joining portion for connecting the wind turbine rotor blade element to a wind turbine rotor hub or to another wind turbine rotor blade element, • wrapping the metal insert in a first fibre layer, • positioning the wrapped metal insert in a mould, • arranging a plurality of second fibre layers (42, 44) in the mould, • embedding the plurality of second fibre layers (42, 44) and the wrapped metal insert in a liquid plastics material, • curing the liquid plastics material in the mould, characterized by the following steps: • wrapping the metal insert in an interface layer of a curable material such that the interface layer is arranged between the circumferential outer surface and the first fibre layer, wherein the entire circumferential outer surface is covered by the interface layer which forms a closed layer substantially impermeable for the liquid plastics material, and • curing the interface layer in the mould together with the liquid plastics material.
A method of docking and undocking a hyperloop vehicle, comprising the steps of: extending a support system to a first position, the support system engaging a surface to support the hyperloop vehicle at a first elevation characterized in that said method further comprises the steps of: retracting the support system to a second position to lower the vehicle to a second elevation in order to move the hyperloop vehicle to a predetermined docking position; and engaging a coupler to fixedly position the hyperloop vehicle relative to a docking platform. retracting the support system to a second position to lower the vehicle to a second elevation in order to move the hyperloop vehicle to a predetermined docking position; and engaging a coupler to fixedly position the hyperloop vehicle relative to a docking platform.