A micro-spill prevention trough and method for use in with intermediate bulk container (IBC) totes is disclosed herein. The micro-spill prevention trough includes an attachment portion rotationally coupled to fluid retention portion. The attachment portion is configured to be secured under a spout of an intermediate bulk container (IBC) tote. The attachment portion includes a bucket portion defining a fluid retention space. The fluid retaining portion defines a second fluid retention space, wherein the fluid retaining portion pivots between an open position and a closed position. In the closed position a front wall of the fluid retaining portion pivots into the bucket portion of the attachment portion to define a fluid retention container.

A micro-spill prevention trough and method for use in with intermediate bulk container (IBC) totes is disclosed herein. The micro-spill prevention trough includes an attachment portion rotationally coupled to fluid retention portion. The attachment portion is configured to be secured under a spout of an intermediate bulk container (IBC) tote. The attachment portion includes a bucket portion defining a fluid retention space. The fluid retaining portion defines a second fluid retention space, wherein the fluid retaining portion pivots between an open position and a closed position. In the closed position a front wall of the fluid retaining portion pivots into the bucket portion of the attachment portion to define a fluid retention container.

A connecting mechanism is used for a collapsible container, the collapsible container comprises a top cover and a chassis, four corners of the top cover are provided with a top corner piece which is connected with a top cover corner pillar, and four corners of the chassis are provided with a bottom corner piece which is connected with a chassis corner pillar, the connecting mechanism comprises a crook lug located at one of the top cover corner pillar and the chassis corner pillar; and a crook locking plate rotatablely provided at the outer end face of the other of the top cover corner pillar and the chassis corner pillar, the crook locking plate is provided with a crook part cooperating with the crook lug.

Systems, methods, and building block modules for modular power generation facilities are disclosed. A modular power generation facility includes a plurality of primary modules and a control system. Each primary module includes eight primary corners and an interior space. The modules are positioned in a vertical stack and are attached together to form a substantially modular enclosure for the generation of electricity. The modules include gen-set modules, each having an engine-generator and a fuel tank disposed in the interior, and a switchgear module having switchgear ganged to the gen-set modules. The control system communicates with the gen-set modules to coordinate the engine-generators as a unit and to control the loading of each of the generators in response to a power load demand. The control system is disposed in one or more of the primary modules with at least part of the control system being disposed in the switchgear module.

Various embodiments provide a bulk material shipping container top wall assembly, and a bulk material shipping container including the top wall assembly, that provides various advantages over previously known commercially available bulk shipping material container top wall assemblies and bulk shipping material containers.

A transport container for transporting a hub and vanes of a fan prior to assembly of the fan includes a body having a floor and defining an interior having a top opening. The transport container also includes a lid that removably covers the top opening. A divider wall is positioned within the interior so that the interior is divided into first and second internal compartments that hold the vanes of the fan. A hub post is positioned within the interior of the body. The hub post has a bottom end portion attached to the floor and a top end portion that is inserted into a central opening of the hub of the fan.

A bulk material shipping container unloader having an expandable supporter, a pallet receiver supported by the extendable supporter, and a material director supported by the pallet receiver.

A movable equipment loading and unloading structure for movably mounting equipment within a container includes a loading and unloading assembly and a guide assembly. The loading and unloading assembly includes a loading and unloading rail mounted to a ceiling of the container and a loading and unloading wheel assembly movably coupled to the loading and unloading rail. The loading and unloading wheel assembly is mounted to a side of the equipment. The guide assembly includes a guide rail mounted to a floor of the container and at least one guide wheel rollably coupled to the guide rail. The guide wheel is mounted to another side of the equipment opposite to the side mounted to the loading and unloading wheel assembly.

A pond system includes a single-piece drop-in flexible liner sized and shaped to partially suspend within a rigid sidewall, creating a cavity that may function as a liquid reservoir. The single-piece drop-in flexible liner includes a base portion surrounded by a sidewall portion configured to rest adjacent to an interior-facing surface of the rigid sidewall. The single-piece drop-in flexible liner further includes multiple tensioning tabs each with a fixed end attached to the base portion and a free end opposite the fixed end. Each of the multiple tensioning tabs is configured to extend under the rigid sidewall and radially outward from the base portion. The pond system further includes a means for securing the free end of each of the multiple tensioning tabs at a location external to the perimeter enclosed by the rigid sidewall.

A pond system includes a single-piece drop-in flexible liner sized and shaped to partially suspend within a rigid sidewall, creating a cavity that may function as a liquid reservoir. The single-piece drop-in flexible liner includes a base portion surrounded by a sidewall portion configured to rest adjacent to an interior-facing surface of the rigid sidewall. The single-piece drop-in flexible liner further includes multiple tensioning tabs each with a fixed end attached to the base portion and a free end opposite the fixed end. Each of the multiple tensioning tabs is configured to extend under the rigid sidewall and radially outward from the base portion. The pond system further includes a means for securing the free end of each of the multiple tensioning tabs at a location external to the perimeter enclosed by the rigid sidewall.