Abstract: A fluid storage container and method is disclosed. The fluid storage container comprises a base frame that supports a tank, a tank for storing fluid, a working surface area walkway built into an end of the tank, a ladder connected near the front of the walkway to the frame, a plurality of handrails on the walkway that can be positioned depending on the required function of the tank, a plurality of strut panels that serve as floorboards on the walkway, a bridge that extends from the left and right sides of the tank to connect to other like tanks, a safety chain that connects between adjacently parked containers, and a dual manifold assembly. A method for configuring the tank's walkways as continuous walkways when parked adjacent to each other is disclosed. A dual manifold system and method for operating the manifolds is also disclosed.

Abstract: A fluid storage container and method is disclosed. The fluid storage container comprises a base frame that supports a tank, a tank for storing fluid, a working surface area walkway built into an end of the tank, a ladder connected near the front of the walkway to the frame, a plurality of handrails on the walkway that can be positioned depending on the required function of the tank, a plurality of strut panels that serve as floorboards on the walkway, a bridge that extends from the left and right sides of the tank to connect to other like tanks, a safety chain that connects between adjacently parked containers, and a dual manifold assembly. A method for configuring the tank's walkways as continuous walkways when parked adjacent to each other is disclosed. A dual manifold system and method for operating the manifolds is also disclosed.

Abstract: There are provided methods of connecting wall sections together. An exemplary embodiment provides a tank wall section having a first end that includes a series of spaced apart through holes. The tank wall section also has a second end that includes a series of spaced apart nubs. The nubs are sized, configured and spaced apart to register with the series of spaced apart through holes of a second tank wall section. The nubs each have affixing through holes extending from a first side of the nub through to an opposite side of the nub. The through holes are each sized and shaped to receive a retaining pin extending through the first side of the nub and through the opposite side of the nub to thereby couple the tank wall section to a second tank wall section.

Abstract: There are provided tank walls constructed from a plurality of tank wall sections joined together, connectors connecting the tank wall sections, and methods of constructing the tank walls. An exemplary embodiment provides a tank wall section having a first end that includes a series of spaced apart through holes. The tank wall section also has a second end that includes a series of spaced apart nubs. The nubs are sized, configured and spaced apart to register with the series of spaced apart through holes of a second tank wall section. The through holes are each sized and shaped to receive a retaining pin extending through the first side of the nub and through the opposite side of the nub to thereby couple the tank wall section to a second tank wall section.

Abstract: There is provided an assembly for hoisting and transporting objects having support receptacles affixed to its outer surface and for moving the objects into a desired close alignment in a predetermined location. The assembly includes a mounting bracket configured to mechanically engage with a lifting end of a crane and at least a pair of lifting plates pivotally coupled to the mounting bracket. The lifting plates have opposed non-parallel sides that are angled to engage the support receptacles during lifting of the object and during transportation of the object. When the crane moves the object to its desired location, the crane operator may pivot the assembly to facilitate aligning the object. Upon completion of alignment, the object is put down, and the lifting plates disengage from the support receptacles by sliding out of the slots of the support receptacles.

Abstract: A gate assembly for controlling runoff. In one embodiment the gate assembly comprises an opening disposed in a front wall and a cover sized for sealing said opening. The gate is moveable between an open and a closed position. The gate may further comprise a latch for retaining the gate in a closed position. The gate assembly can be installed within a berm to control collected runoff. Thus, the runoff can be contained within a berm, for example, until the operator is ready to dispose of the runoff.