6218 results about "Wind driven" patented technology

The invention relates to a wind-driven power-plant comprising a rotor (100) which is fitted with at least one rotor blade and which is connected directly or indirectly to a generator for power generation, further including an electrical assembly made up of different electrical sub-assemblies including electronic, electrical and / or electromechanical and / or sensor elements and / or electrotechnical safety elements, where, depending on their purposes, all elements / components of one or more electrical sub-assemblies or specific elements of the electrical sub-assembly are combined into one or more function modules that implement at least one function in relation to the generation of electric power, where a parallel module is associated with at least one function module, and the parallel module is able to implement the same or nearly the same function as the function module in normal operation.

An aerial power generation system includes a guide line supported by a support body. Wind driven elements are configured and shaped to provide maximum force from both lift and drag during the downwind phase of operation and minimum force during the upwind phase. The guide lines add stability to the system and provide better control over angular orientation and direction of motion. Power transfer is through one or more tow lines connected from the driven elements to power generation devices on the ground. Another embodiment of the aerial power generation system includes a revolving apparatus and two or more wind powered driven elements connected by tow lines to the revolving apparatus. The method includes changing the driven elements between high and low force configurations for downwind and upwind operation, and flying the driven elements in a selected pattern perpendicular to the tow line.

The present invention relates to a several wind mills parallelly-connected type wind energy and optical energy complementary water elevation system. Said system includes the following several portions: wind-driven power generator unit, solar cell component, intelligent controller and submersible pump. The described intelligent controller can be used for controlling, managing and tracking said system.

Disclosed are apparatus and corresponding methodology for providing a base support, such as including concrete, and used such as for a wind-driven generator. Precast concrete cylinders are stacked in place upon a platform that may be partially precast and partially cast in place during assembly and supported, in certain embodiments, by plural concrete legs, the other ends of which are supported on a unitary or subdivided concrete foundation. In other embodiments, the platform may be supported by ribbed concrete panels. The concrete cylinders are glued together using an epoxy and then secured by an internal vertical post tension system extending from the platform to the upper most cylinder. Different types of concrete are used between upper and lower sections of the stacked cylinders. The lower section uses reinforced concrete while the upper section used ultra high performance fiber reinforced concrete.

A partially transparent storm shutter for protecting glass windows, doors, and similar building openings from damage due to wind forces and wind driven flying objects is formed of a plurality of adjacent corrugated sheet metal and transparent protective, impact resistant sheet panels rigidly connected together along their respective adjacent edges. Special connector members are utilized to connect the transparent panel or panels to the corrugated sheet metal panel(s) and special connector members may be utilized to connect together adjacent transparent panels used in the storm shutter. The transparent panels may be formed of tough, impact resistant, polycarbonate plastic sheet material.

A method is provided for installing a ventilated eaves closure and tile support apparatus along the eaves of a roof. A vented eaves closure apparatus is disposed along the eaves to support the first course of roof tiles at a desired pitch. The apparatus provides support, ventilation, and drainage, while also providing a barrier to wind-driven precipitation, bird nesting, and animal invasion. The apparatus includes an array of openings configured to allow drainage and facilitate the flow of air beneath the tiles and throughout the air space between the roof deck and the tiles. The method and apparatus can be adapted to fit a variety of roof types and roof tiles having different sizes, shapes, and profiles.

A shrouded enclosure is mounted to a vehicle roof, the shrouded enclosure comprising an air intake formed by controllable shrouds, a turbine, an electricity generating device, and a discharge outlet. The turbine is interposed between the air intake and the discharge outlet, operatively connected to the electricity generating device and adapted to operate by the air passing through the shrouded enclosure when the vehicle is in motion. The turbine rotates about a turbine shaft mounted on a pair of bearing towers. The rotational energy of the turbine shaft is transferred to the electricity generating device. A base plate is interposed between the shrouded enclosure and the mounting surface of the vehicle. An electrical circuit provides electrical continuity between the electricity generating device and the battery during predetermined periods thereby generating electrical energy to charge the battery with the generated electrical energy. The controllable shrouds are opened to a predetermined position during the predetermined periods of electrical continuity and are otherwise closed to form a predetermined aerodynamic shape to reduce drag during vehicle movement.

A system for the generation of electrical power using an improved 600-watt to 900-watt wind turbine system. The system comprises a wind driven generator utilizing an array of uni-directional carbon fiber turbine blades, an air-ducting nose cone, and a supporting tower structure. Additionally, a method of blade fabrication utilizing expanding foam, to achieve improved blade edge strength, is disclosed. The support tower utilizes a compressive coupler that permits standard fence pipe to be joined without welding or drilling.

The invention discloses an epoxy resin adhesive for manufacturing blades of a wind driven generator and a preparation method thereof. The epoxy resin adhesive is prepared by combining a resin part and a curing agent part, wherein the resin part comprises epoxy resin, a dilutent, filler, a thixotropic agent and an auxiliary agent; the curing agent part comprises an amine curing agent, filler and athixotropic agent; and the filler comprises a powdery filler part and a fibrous filler part. The epoxy resin adhesive prepared by using the general epoxy resin has high strength, particularly furtherimproves the strength of materials by adding the fibrous filler, improves the anti-cracking performance of the materials, meets the special requirements of the blades of wind driven generators with megawatt or more on the materials and has low material cost and high economy.

The present invention relates to an imitation candle, comprising a housing, an imitation flame body provided at a top of the housing, a light source adapted to emit light onto the imitation flame body, a swing motion device, and an air blowing device. A lower portion of the imitation flame body is connected with the swing motion device that is configured to allow the imitation flame body to pivot horizontally about at least one of a X axis and a Y axis, and comprises a wind driven pendulum member. The air blowing device is adapted to blow air toward the wind driven pendulum member causing the wind driven pendulum member to swing as well as the imitation flame body to pivot. The wind driven pendulum member is a wind driven bowl adapted to receive blowing air and having an air discharge hole.

Wind driven apparatus for an aerial power generation system include driven elements and controls. The driven elements are configured and shaped to provide maximum force from both lift and drag during the downwind phase of operation and minimum force during the upwind phase. The driven elements have a sail portion with a leading edge and a trailing edge. The controls change the driven elements between high force configurations for downwind operation and low force configurations for upwind operation, adjust the pitch and azimuth angles of the driven elements, and control the camber.

A tethered airborne wind-driven power generation device providing, in various embodiments, a main tether and plurality of auxiliary tethers, feedback controls for continuously adjusting pitch, roll and yaw, and a Vee-shaped configuration for disposing rotors along the frame of the device. The auxiliary tethers avoid slack and resultant transient instability, and the Vee-shaped rotor disposition takes advantage of upwash or any other aerodynamic benefit from the rotors adjacent to it, to improve efficiency.

The invention proposes a system simulation method for connecting large-scale wind power into a power grid in a centralization way and an effective equivalent mode of a high-capacity wind power station. Based on the synchronization operating characteristics of the large-scale wind power, the invention makes the large-scale wind power synchronization simulation analysis principle under the comprehensive consideration of the influences of the wind resource characteristics of wind power generation, the dynamic response characteristics of a wind driven generator and the differentiation characteristics of different types and different control modes of various wind driven generators and the like; therefore, the invention constructs the complete analytical framework and flows of the system simulation assessment with the large-scale wind power being connected into the power grid. The simulation analysis result shows that the system simulation method can comprehensively, objectively and accurately assess the impact and the safety bottleneck to the stable running of a power system caused by wind power synchronization after the base synchronization of the large-scale wind power due to the affection to the dynamic response characteristics of the power system by the differentiation of the types and the response characteristics of various wind driven generators and the wind resource characteristics. Therefore, the method is beneficial for the scheduling and operating staff to accurately grasp the affection to the system characteristics by the connection of the large-scale wind power and the law of the connection of the large-scale wind power, and has significant meaning for instructing and making the corresponding precautionary and improved measure and ensuring the normal running of the system after the connection of wind power.

A system for the generation of electrical power using an improved 600-watt to 900-watt wind turbine system. The system comprises a wind driven generator utilizing an array of uni-directional carbon fiber turbine blades, an air-ducting nose cone, and a supporting tower structure. Additionally, a method of blade fabrication utilizing expanding foam, to achieve improved blade edge strength, is disclosed. The support tower utilizes a compressive coupler that permits standard fence pipe to be joined without welding or drilling.

A roofing shingle for enhanced wind / rain durability embodies two transverse lines of adhesion. A first discontinuous line of adhesive joins the butt edge of an overlying shingle to the underlying shingle. Secondly, a band of sealant adjacent the top edge of an underlying shingle seals against an overlying shingle to prevent penetration by wind driven rain to the roof deck. A reduced headlap is thereby permitted, thereby either reducing shingle size or extending shingle coverage. Exposed portions of the sealant band improve the erosion resistance of underlying shingles.

A backup DC vent system for an equipment enclosure is disclosed. The system includes an air intake system which allows air to pass from the ambient environment through a battery compartment of the enclosure, through the floor and into the interior of the enclosure where components to be cooled are mounted. Internal air distribution is accomplished by an air distribution duct system. An air exhaust system is attached to a side of the enclosure and includes a door panel to selectively allow heated air flow from the enclosure interior, a fan mounted to a fan box which is mounted to the enclosure for sucking the air through the enclosure, and a cover to prevent wind driven rain water from impinging upon the fan or the interior of the enclosure.

Disclosed is a comprehensive coordination control method of a wind-solar direct current micro-grid. The wind-solar direct current micro-grid comprises wind driven generator and alternating current (AC) / direct current (DC) / DC converters, photovoltaic array and DC / DC converters, a circuit interrupter, AC / DC load and DC / AC and DC / DC converters, a DC bus, a supercapacitor energy storage system and bi-directional DC / DC module, a storage battery energy storage system and bi-directional DC / DC module, a bi-directional AC / DC converter, a coordination controller, a control network for connecting the coordination controller and the converters and a communication network for connecting the coordination controller and a large power grid power scheduling center, and an operational mode of the wind-solar direct current micro-grid is divided into two categories of a grid-connected mode and an island mode. Stable operation of the wind-solar direct current micro-grid under the grid-connected mode and the island mode is achieved by comprehensively using power scheduling, load scheduling and energy storage device scheduling.

The pod of wind-powered generator is constituted by a rigid fairing in which at least one electricity generator for coupling to at least one wind-driven propeller is disposed. The rigid fairing of the pod is formed by the body of the generator in which there are mounted a stator and a rotor, thereby simplifying the structure of the pod.

The invention is a vertical axis wind turbine that utilizes leverage to compound the force from the wind, thereby creating exstordinary power, enough to turn a plurality of generators, thereby reducing the cost per kilowatt of electricity. It has wind blocking means that when struck by the wind from behind they shift to a position to block the wind to absorb energy from the wind thereby causing the turbine to revolve. At the same time, the wind blocking means on the opposite side of the turbine are being struck by the wind on their front leading edge causing them to rotate up to a position where they do not block wind. The result is that one half of the turbine is always being driven by the wind to cause rotation while the opposite side of the turbine is always allowing wind to pass through it. It doesn't matter which direction the wind is coming from.

A vertical wind-driven electricity generation device is described, which utilizes a unique segmented Savonius rotor and which is easily handled, transported, assembled and maintained, even by a single person. The blades of the rotor are segmented into a plurality of modest size blade pair segments, each of which comprises two (or optionally, three or four) low height, helically curved blade portions. The blade pair segments are preferably of the same height and diameter. The rotor is mounted on a central vertical shaft connected to a generator. When the plurality of blade portions are installed on the device's central shaft, the overall blade configuration functions as an unitary Savonius rotor. Flow of gas (normally air in the form of wind) causes the segmented Savonius rotor to move, turning the shaft and rotating member of the generator to rotate, causing the generator to generate electricity.

Provided herein are polyamine precursors useful in the manufacture of epoxy resins. Use of a polyamine precursor according to the invention provides an epoxy resin formulation having an increased working time over prior art amines used for curing epoxies. Increased working times translate to the ability to manufacture composites which could not be made using conventional epoxy curing agents, such as composite blades for wind-driven turbines. Such polyamines are also useful in polyurea formulations for lengthening reaction time, thus allowing more flow of applied polyurea coatings prior to gellation.

A wind-energy power machine and it's energy-storage generation system and wind-energy power generation system relate to a field of wind-energy power, generating technology and generating device. The wind-energy power machine is composed of a central rotor, a plurality sets of frames and at least a set of wind-pressure pushing mechanism provided within each set of frame. The central rotor vertically rotatablely mounted within a mounting frame in a special high-story frame structure with wind collecting wall is formed to a large scale power and generating system by means of combining with vertical or horizontal integrated system, or both systems in series and in parallel.

An aerial power generation system includes a guide line supported by a support body. Wind driven elements are configured and shaped to provide maximum force from both lift and drag during the downwind phase of operation and minimum force during the upwind phase. The guide lines add stability to the system and provide better control over angular orientation and direction of motion. Power transfer is through one or more tow lines connected from the driven elements to power generation devices on the ground. Another embodiment of the aerial power generation system includes a revolving apparatus and two or more wind powered driven elements connected by tow lines to the revolving apparatus. The method includes changing the driven elements between high and low force configurations for downwind and upwind operation, and flying the driven elements in a selected pattern perpendicular to the tow line.

A vertical full-magnetic suspension wind-driven generator consists of a magnetic-suspension loading platform, a driving shaft, a generator, blades and a radial magnetic-suspension bearing. The magnetic-suspension loading platform is used for carrying the dead weight of the generator rotor, the driving shaft and the blades. The radial magnetic-suspension bearing is used, so the whole rotating part of the wind-driven magneto generator realize the magnetic suspension completely.

A method for operating a wind energy installation, in particular for adapting a wind energy installation (10) to given wind conditions, the wind energy installation (10) having a rotor (16), which can be driven by wind, with at least two rotor blades (20), whose respective angles of incidence of the wind can be adjusted by means of at least one adjustment device, and having a generator for converting the mechanical energy of the rotor (16) to electrical energy. During operation of the wind energy installation, parameters are measured with spatial and / or temporal resolution on the side of the wind energy installation (10) facing the wind, said parameters describing the wind conditions in the measurement region, preferably the wind speed and / or the wind direction. The wind parameters are measured at various vertical distances from the ground, namely various heights, and at horizontal distances from the rotor (16), which are selected such that the angles of incidence of the wind on the individual rotor blades (20) can be adapted in response to the measured wind parameters before the wind on which the wind parameters are based, in particular a wind front or a gust of wind, reaches the rotor (16). Values are predicted or calculated, in particular continuously or periodically, from the measured wind parameters—prognosis values—which describe wind conditions occurring in the future at the rotor blades for various heights. The angles of incidence of the wind on the individual rotor blades (20) are adjusted individually and independently of one another, preferably a plurality of times during a complete revolution of a rotor blade, depending on these predicted or calculated prognosis values at the various heights.

The invention discloses a distributed power source contained power system multi-target reactive-power optimization method in the field of power system reactive-power optimization. The technical scheme includes: 1, deducing a model of a wind-driven generator in power flow calculation; 2, initializing power grid parameters and grid-connected parameters of a distributed power source; 3, constructing an individual vector formed by system reactive-power optimization control variables, and initializing species; 4, performing the power flow calculation according to the initialized species and grid parameters after grid-connection of the distributed power source, and calculating objective function values; 5, performing multi-target optimization by utilizing the harmony search hybrid algorithm based on artificial bee colony; and 6, finishing the optimization process and outputting optimized results. The distributed power source contained power system multi-target reactive-power optimization method is a hybrid optimization algorithm ABS-HS which integrates the advantages of global search of the artificial bee colony (ABC) algorithm with local search of the existing harmony search (HS) algorithm, so that efficiency and robustness of the algorithm are improved.

The windmill assembly is a low drag, streamlined body of revolution that captures the kinetic energy content of the accelerated laminar air surrounding the body. The assembly includes a power-generating, wind-driven turbine that is compact, lightweight and capable of producing a substantially greater output than a conventional windmill with a comparable size rotor. The turbine includes a protruding aerodynamic nose and outer cowling that provide a streamlined, wind-collecting inlet section that constricts the incoming air stream and increases its velocity through the turbine blades. The turbine further includes an exit section designed to exhaust the air stream with a minimum of turbulence. One or more generators are coupled to a turbine wheel, and are electrically switched on and off to maximize the energy capture over the full range of ambient winds. The wind turbine assembly may be configured around a blimp-type body having counter-rotating turbine assemblies.