865results about "Wind motor transport" patented technology

Disclosed are systems, methods, and devices related to fixed and transportable structures and vehicles utilizing the integration of solar and wind technologies for generation of electricity. The system generates electricity using solar panels (and / or solar thermal units) and wind turbines, stores and converts electricity, and can be located in various locations either as fixed or portable embodiments including on land, on water, underwater, air and space and may also be housed in a structure to provide electricity for various facilities and uses.

A self-sustaining, portable, power station that may be moved by land, air, or sea to an area that has no utilities. The station is provided with solar panel arrays in communication with at least one electrical distribution and storage means. The derived electricity is used to power various systems including, albeit not limited to, a communications system, a water filtration system, a water distribution system to allow the public to draw potable water and provide basic hygiene. The electricity derived may also be used to run outside systems, such as schools, hospitals, or the like. The solar panel arrays are mounted on roller assemblies that can be easily slide between a stowed and deployed condition. The solar arrays include a plurality of solar panels that are supported by one or more hydraulic actuators to counter balance the weight of the solar panel whereby the solar panel can be easily positioned into the desired tilted orientation.

A method and apparatus for a portable renewable energy generator includes; a movable platform adapted for one of towing and transport to a remote area, a redundant renewable energy source generator including a wind energy extraction device configured for transport on the movable platform, and a battery system operably connected to the redundant renewable energy source generator. The battery system is configured to store electrical energy generated by the redundant renewable energy source generator.

A system includes at least one body, a link for suspending the body for movement with gravity from a first elevation position to a second elevation position, and an electrical energy generator coupled with the body through the link to drive the generator to generate electricity upon movement of the body with gravity from the first to the second elevation position. The at least one body has a mass of at least approximately 100 tonnes; the first and the second elevation positions define a distance therebetween of at least approximately 200 meters; and / or the system further includes an operator configured to operate the link to controllably move the at least one body against gravity from the second to the first elevation position to increase a gravitational potential energy of the at least one body, and to maintain the gravitational potential energy of the at least one body.

A mounting system includes a plurality of adjacent railcars including a first railcar that includes spaced first and second wheel assemblies each including at least one wheel pair. The mounting system also includes a first and second frames coupled to the first railcar. The first frame includes a space defined between at least two portions of the first frame and at least one cushion selectively positionable within the first frame space. The second frame includes a space defined between at least two portions of the second frame and at least one cushion selectively positionable within said second frame space. The first and second frames are spaced to facilitate at least one of partially containing and partially supporting the load. The first frame is substantially centered over at least one first wheel assembly wheel pair, and the second frame is substantially centered over at least one second wheel assembly wheel pair.

An embodiment of an apparatus useful for up-righting a wind turbine pillar at an offshore installation location includes a barge having first and second towers and an open area therebetween and which extends downwardly to the offshore installation location. At least two pulling lines extend from the towers to the pillar and are useful to assist in moving the pillar into a generally up-right orientation between the towers and lowering the pillar downwardly through the open area to the offshore installation location.

A method and apparatus for a portable renewable energy generator includes; a movable platform adapted for one of towing and transport to a remote area, a redundant renewable energy source generator including a wind energy extraction device configured for transport on the movable platform, and a battery system operably connected to the redundant renewable energy source generator. The battery system is configured to store electrical energy generated by the redundant renewable energy source generator.

A floating power generation assembly has at least three floating units (3400) provided with power generation means (3402, 3404) and floating in a body of water. At least one of the three floating units (3400) is a tension leg platform. The assembly also comprises first anchors secured to a surface beneath the water, and first cables (3414, 3416) connecting the buoyant body (3400) to the first anchors. Second anchors are secured to the underwater surface and connected by second cables (3412) to the floating units (3400). The floating units (3400) are arranged substantially at the vertices of at least one triangle or quadrilateral.

A method of transporting and storing a wind turbine blade (1) including a blade root (10) and a blade tip (4), where the wind turbine blade curves in the unloaded state in such a manner that the blade (1) presents a substantially concave face (30) and a substantially convex face (12), and such that said blade tip (4) is spaced apart from the longitudinal central axis (28) of said blade root (10). By the method, the wind turbine blade (1) is prestressed by means of prestressing means (2, 5, 6, 9, 13, 16, 17, 21, 22, 23, 24, 25, 26, 33) at a distance from the blade root (10) in such a manner that the blade tip (4) is brought closer to the longitudinal central axis (28) of the blade root (10). The invention also relates to a curved wind turbine blade (1) being provided with inner ballast tanks (21) at a distance from the blade root (10), whereby the blade is prestressed by filling said ballast tanks in such a manner that the blade tip (4) may be brought closer to the longitudinal central axis (28) of the blade root (10). The invention further relates to an apparatus including prestressing means for loading a curved blade at a distance from the blade root (10) in such a manner that the blade tip (4) is brought closer to the longitudinal central axis (28) of the blade root (10).

A method for mounting a wind turbine blade to a wind turbine hub by use of a crane boom is provided. The orientation of the blade is kept substantially horizontal when the blade is lifted off the ground and mounted to the rotor hub. Control wires which connect the blade via the crane boom to a winch arrangement are used for keeping the blade orientation substantially horizontal in addition to at least one bearing wire for bearing the blade weight.

The mobile hybrid electrical power source (100) is reconfigurably disposed in a street-legal size compact metallic container (105) positioned on a hydraulic trailer (107) that can be towed by a truck. An alignment pin (109) is provided on the container (105) for aligning and mating the container with a rotary bearing (111) on the trailer (107). The rotary bearing (111) allows the metallic container (105) to rotate about a vertical central axis + / −180° from an initial position of the container (105). The generator (100) combines a plurality of power sources to provide optimal operation in multiple applications and conditions. The power sources comprise wind, solar, and fossil fuel energy components. When a power grid is available, the mobile hybrid electrical power source (100) can be connected to the grid to sell energy back to the grid.

A multi-segment wind turbine blade comprises at least two blade segments. A first spar cap segment is attached to a first blade segment and a second spar cap segment is attached to a second blade segment. The first and second spar cap segments are configured to form a scarf joint. First and second spar cap brackets are attached in locations of the first and second spar cap segments, respectively, selected to facilitate alignment of the first and second spar cap segments at the scarf joint. At a field site, the first and second spar cap segments are bonded after fastening the first and second spar cap brackets.

A fixture for at least one of supporting and transporting a load. The fixture includes a frame having a space defined between at least two portions of the frame. The space is configured to receive a portion of the load. The fixture also includes at least one cushion selectively positionable relative to the frame in at least two different positions wherein the at least one cushion is coupled to the frame to facilitate at least one of containing and supporting at least a portion of the load.

An integrated shipping and alignment fixture for shipping and aligning a jointed multi-section wind turbine blade is provided. The fixture includes a first shipping fixture supporting a first end of a section of the multi-section wind turbine blade; a second shipping fixture supporting a second end of a section of the multi-section wind turbine blade; supports on the the first shipping fixture and the second shipping fixture for retaining one end of the section of the wind turbine blade; an aligning device for aligning a detached section of the multi-section wind turbine blade with a retained section of the wind turbine blade; and a clamping device for clamping a detached section with a retained section.

A floating power generation assembly comprises at least three floating units (900) floating on a body of water, and at least three anchors (916) secured to a solid surface beneath the body of water, each of the floating units (900) being provided with power generation means, the floating units (900) being arranged substantially at the vertices of at least one equilateral triangle. The invention also provides ship-borne apparatus for deploying the floating units of such a power generation assembly and a novel multiple wind turbine assembly.

A method and system for transporting an offshore structure such as a wind turbine generator includes a supporting frame in which the offshore structure is assembled on land in an upright configuration. The frame is used for lifting the structure onto a transport vessel, on which it is retained in the upright configuration. At its location of use, the offshore structure is transferred to a pre-prepared foundation. The foundation is provided with a frame which cooperates with the supporting frame. The supporting frame includes a plurality of legs having hydraulically controlled feet. The frame of the foundation includes an equal number of supporting formations on which the feet ultimately rest. The feet are moveable in response to the hydraulic control along a nominally vertical line of action and provide a damping arrangement for the mounting of the offshore structure.

The invention is relative to a transport vehicle with a tractor and a trailer that are connected to one another during the transport of cargo by the cargo itself. The invention has the problem of making a transport vehicle available that also makes possible the transport on highways of very bulky material, especially such material that exceeds the usual profile height of underpasses and bridges (freeway bridges, etc.). A transport vehicle for a rotor blade of a wind power system with a tractor and a trailer that are connected to one another during the transport of the rotor blade by the rotor blade and that respectively comprise a holding device and / or receiving device for the rotor blade which holding device and / or receiving device is / are designed in such a manner that it / they permit(s) a rotation of the rotor blade about its longitudinal axis and that a drive for rotating the rotor blade is provided on the tractor and / or the trailer.

A system for transporting an airfoil having a root end, a tip end, and a midsection over a railroad, utilizing a first railcar coupled to a second rail car. The system includes a bracket fixed to the root end of the airfoil and also connected to the first railcar, where the bracket is oriented to align the tip end of the airfoil toward the second rail car. A sling stand is connected to the second railcar, and a sling is hung from the sling stand and aligned to engage and support the midsection of the airfoil, and thereby accommodates misalignment during transport over the railroad. A pair of rollers are disposed on either side of the airfoil to limit lateral movement thereof.

A method of replacing wind turbine equipment, which can reduce the cost for replacing large equipment disposed in a nacelle, is provided. The method is characterized by including a winch-hoisting step for winching up to a nacelle a reciprocating winch that is used for replacing the wind turbine equipment disposed in the nacelle mounted atop a tower and a balance supporting the wind turbine equipment with an ordinarily-installed winch provided on a girder that moves in the nacelle; a wire-hoisting step for hoisting a wire that is used for the replacement of the wind turbine equipment to the nacelle from a drum disposed on the ground; a winch-replacing step for detaching the ordinarily-installed winch from the girder and attaching the winch for replacement to the girder; and a wire-arranging step for arranging the hoisted wire on the reciprocating winch and a movable pulley provided between the balance and the girder.

The invention relates to a transportation method and a package system for transporting a set of large longitudinal items such as blades for a wind turbine (1) or a tower for a wind turbine. Taking wind turbine blades (1) as an example, the advantages of the invention reside in packaging a tip (3) of one blade and a base (2) of a second blade in the one and same package (5) such that two blades (1) may be transported in packages (5, 16) having an overall lateral extension, approximately the same as the base of only one blade (1) for the wind turbine. Thereby a very compact but also a very easy means of transportation of large longitudinal items such as wind turbine blades (1) is provided.

The invention is relative to a transport vehicle with a tractor and a trailer that are connected to one another during the transport of cargo by the cargo itself. The invention has the problem of making a transport vehicle available that also makes possible the transport on highways of very bulky material, especially such material that exceeds the usual profile height of underpasses and bridges (freeway bridges, etc.). A transport vehicle for a rotor blade of a wind power system with a tractor and a trailer that are connected to one another during the transport of the rotor blade by the rotor blade and that respectively comprise a holding device and / or receiving device for the rotor blade which holding device and / or receiving device is / are designed in such a manner that it / they permit(s) a rotation of the rotor blade about its longitudinal axis and that a drive for rotating the rotor blade is provided on the tractor and / or the trailer.

A floating wind turbine system with a tower structure that includes at least one stability arm extending therefrom and that is anchored to the sea floor with a rotatable position retention device that facilitates deep water installations. Variable buoyancy for the wind turbine system is provided by buoyancy chambers that are integral to the tower itself as well as the stability arm. Pumps are included for adjusting the buoyancy as an aid in system transport, installation, repair and removal. The wind turbine rotor is located downwind of the tower structure to allow the wind turbine to follow the wind direction without an active yaw drive system. The support tower and stability arm structure is designed to balance tension in the tether with buoyancy, gravity and wind forces in such a way that the top of the support tower leans downwind, providing a large clearance between the support tower and the rotor blade tips. This large clearance facilitates the use of articulated rotor hubs to reduced damaging structural dynamic loads. Major components of the turbine can be assembled at the shore and transported to an offshore installation site.

A support tower for heavy loads or large structures such as a wind turbine generators, constructed of a plurality of telescopic tower sections with the outer lower tower section having a lower end supported from a foundation and at least one or more inner upper tower sections telescoped in an initial vertical nested relation within the outer lower tower section. The heavy load is mounted on an upper end of the inner upper tower section while in the initial vertical nested relation. The inner upper tower section or sections are then lifted upwardly to an extended tower height by lift mechanisms and the tower sections are secured in vertically extended position by inter-engaging wedge joint structure with bolt fasteners extending through mating wedge surfaces to retain the telescopic tower sections vertically extended and position the heavy load in a vertically elevated position.

A mounting bracket device and method for mounting a blade of a wind turbine to a transportation device are disclosed. The mounting bracket device includes a clamping device for holding the blade, an adjustment system, and a connecting system adapted for being removably connected to the transportation device. The connecting system removably connects the clamping device and the adjustment system to the transportation device. The adjustment system is adapted to align the clamping device with respect to the transportation device around the first rotary axis and around a second rotary axis.

A modularly extendible container system for transporting wind turbine blades is disclosed. The extendible container system includes at least one module (50, 52) configured to be connected to other modules. The module includes a box-shaped frame and corrugated side walls attached to the frame. The extendable container system further includes a connecting member positioned at each end of the module for connection between the module and the other module to extend the length of the container system.