Abstract: A latching mechanism for a pedestal closure assembly has a pair of substantially channel-shaped slots, each slot having two arms, a flanged base and first and second ends. Each flanged base has a cam-like edge and is connected to the second end of each respective slot. The cam-like edge interconnects the upper and lower surfaces of the flanged base. A pair of legs adapted to be received by each slot are also included in the claimed latching mechanism. Each leg has a limiting edge and includes an end portion adapted to limit the motion of the legs when they are received in the respective slots. At least one flexible latch arm adapted to engage the flanged base of at least one of the slots is connected to one of the legs. Each latch arm includes a finger element beyond the end portion of the limiting edge of the leg. The finger element includes an engagement portion which abuts the lower surface of the flanged base of the leg when the leg is received in its respective slot.

Abstract: A pedestal closure assembly having a housing that defines an enclosed interior space and includes two side walls, a front wall, a rear wall, an upper portion and a lower portion. A mounting plate is supported by the housing in the interior space and serves to support electronic interconnection blocks. A grounding element to enable grounding of electrical equipment connected to any electronic interconnection block is also attached to the mounting plate. The lower portion of the housing has a scoop-shaped structure and a step structure to allow substantially vertically aligned installation and enhanced anchoring in a support medium such as earth, concrete and the like. The step portion may be formed on either the front wall or rear wall of the lower portion of the housing. The housing, mounting plate scoop-shaped structure and step structure is constructed of non-metallic material, such as high density polyethylene, or HDPE.

Abstract: A pedestal closure assembly has an upper housing section and a separate lower housing section, each of which include front walls, rear walls, and two side walls. These housing sections are structured and dimensioned for telescoping nesting with first and second positive locking mechanisms for a friction fit. These housing sections when locked together form an integral housing structure which has an interior space for protectively accommodating electrical, power supply or telecommunications equipment. This housing structure may be constructed of non-metallic material. The first positive locking mechanism and second locking mechanism may be positioned across from each other on opposite side walls of the housing sections, and, even more preferably, may be aligned diagonally from each other on opposite side walls of the housing sections. The lower housing section may include raised ribs to enhance the friction fit of the assembled housing sections.