A potable water producing system for disposition at a salt water body and methods of producing potable water are provided. The system includes a wave energy conversion system (AWECS) and a portable filtration system. The AWECS forms a floating articulated barge having an onboard desalination system including reverse osmosis membranes. The filtration system is a sand filter residing on a damping plate submerged in the salt water body and filters the adjacent salt water for providing filtered salt water to the onboard desalination system. Wave action on the articulated barge provides energy to pump and pressurize the filtered salt water from the sand filter to the reverse osmosis membranes to produce potable water. The wave action on the articulated barge effects shaking of the reverse osmosis membranes, thereby rendering them self-cleaning. The potable water can be used for various applications, e.g., bottling, replenishing aquifers, ground and/or aquifer remediation, irrigation, etc.

The present invention relates to a method for repairing an intake for a storage dam, which comprises; constructing a cabin for controlling sediment, formed by modular rings that are 12 m in diameter and 3 m high, to allow the demolition of the old intake without draining the area; prefabricating elements for extending the new intake in situ by means of metallic formwork for setting the modular elements which are subsequently steam-cured and transferred to a final location by means of a barge and cranes. The final assembly is carried out using divers and cabin equipment, such as lighting, closed-circuit cameras, monitoring, emergency stairs and an elevator or service elevator, ensuring a reduction in the time and cost of repairing an intake in storage dams.

A screen intake has a central body with two screens attached on either end. Each of the screens has an interior that communicates with a hollow of the body via flow modifiers. These flow modifiers include one or more pipes disposed in the interior of the screens and through passages in ends of the body. A flow control support device disposed within the body supports the body's sidewall and divides the hollow into at least two portionseach communicating with flow from one of the flow modifiers. The device can include one or more plates disposed adjacent one another within the internal hollow with a peripheral edge attached to an inside of the body's sidewall. At least one of the one or more plates can be solid, or one or more of the plates can define openings therein allowing passage of at least some fluid therethrough.

A screen intake has a central body with two screens attached on either end. Each of the screens has an interior that communicates with a hollow of the body via flow modifiers. These flow modifiers include one or more pipes disposed in the interior of the screens and through passages in ends of the body. A flow control support device disposed within the body supports the body's sidewall and divides the hollow into at least two portionseach communicating with flow from one of the flow modifiers. The device can include one or more plates disposed adjacent one another within the internal hollow with a peripheral edge attached to an inside of the body's sidewall. At least one of the one or more plates can be solid, or one or more of the plates can define openings therein allowing passage of at least some fluid therethrough.

To provide a portable device capable of capturing a flow of water from a stream, storm drain or runoff channel, on command and send that captured water into a pipe system, while allowing remote adjustment of the capture and flow rates out of the cube device, the stormwater syphon cube includes a rock grate to prevent stormwater borne objects from entering the device, and an exit valve adjustable via cable control, a side extraction valve adjustable via cable control to adjust the water flow into the extraction pipe, and extraction pipe attached to the cube to carry extracted water away to storage. The sealed exit pipe acts as a syphon drawing water out of the cube.

A potable water producing system for disposition at a salt water body and methods of producing potable water are provided. The system includes a wave energy conversion system (AWECS) and a portable filtration system. The AWECS forms a floating articulated barge having an onboard desalination system including reverse osmosis membranes. The filtration system is a sand filter residing on a damping plate submerged in the salt water body and filters the adjacent salt water for providing filtered salt water to the onboard desalination system. Wave action on the articulated barge provides energy to pump and pressurize the filtered salt water from the sand filter to the reverse osmosis membranes to produce potable water. The wave action on the articulated barge effects shaking of the reverse osmosis membranes, thereby rendering them self-cleaning. The potable water can be used for various applications, e.g., bottling, replenishing aquifers, ground and/or aquifer remediation, irrigation, etc.

A potable water producing system for disposition at a salt water body and methods of producing potable water are provided. The system includes a wave energy conversion system (AWECS) and a portable filtration system. The AWECS forms a floating articulated barge having an onboard desalination system including reverse osmosis membranes. The filtration system is a sand filter residing on a damping plate submerged in the salt water body and filters the adjacent salt water for providing filtered salt water to the onboard desalination system. Wave action on the articulated barge provides energy to pump and pressurize the filtered salt water from the sand filter to the reverse osmosis membranes to produce potable water. The wave action on the articulated barge effects shaking of the reverse osmosis membranes, thereby rendering them self-cleaning. The potable water can be used for various applications, e.g., bottling, replenishing aquifers, ground and/or aquifer remediation, irrigation, etc.

A containment boom system for remediating an oil spill in a body of water includes a base support structure and a containment boom. An elongated rod has a proximal end and a spaced apart distal end. The proximal end is hingedly attached to the base support structure and extends laterally therefrom. A buoy is coupled to the distal end of the elongated rod. The buoy has sufficient buoyancy so as to remain floating on the liquid body while supporting the elongated rod. A reclamation loop is disposed in the water, a first portion of which is disposed in the oil spill and a second portion is disposed the water on the opposite side of the containment boom from the oil spill. The reclamation loop is continuously driven through a reclamation station, which removes oil therefrom.

A containment boom system for remediating an oil spill in a body of water includes a base support structure and a containment boom. An elongated rod has a proximal end and a spaced apart distal end. The proximal end is hingedly attached to the base support structure and extends laterally therefrom. A buoy is coupled to the distal end of the elongated rod. The buoy has sufficient buoyancy so as to remain floating on the liquid body while supporting the elongated rod. A reclamation loop is disposed in the water, a first portion of which is disposed in the oil spill and a second portion is disposed the water on the opposite side of the containment boom from the oil spill. The reclamation loop is continuously driven through a reclamation station, which removes oil therefrom.

The present invention relates to a method for repairing an intake for a storage dam, which comprises; constructing a cabin for controlling sediment, formed by modular rings that are 12 m in diameter and 3 m high, to allow the demolition of the old intake without draining the area; prefabricating elements for extending the new intake in situ by means of metallic formwork for setting the modular elements which are subsequently steam-cured and transferred to a final location by means of a barge and cranes. The final assembly is carried out using divers and cabin equipment, such as lighting, closed-circuit cameras, monitoring, emergency stairs and an elevator or service elevator, ensuring a reduction in the time and cost of repairing an intake in storage dams.