Abstract: A system and method for visualization of a mechanical integrity program are disclosed. In one embodiment, a mechanical integrity program server is configured to provide design, assurance, and verification functions that ensure a site, or a site under development, meets appropriate and intended requirements. Based on point cloud data and digital imagery collected from the site, a composite model file is built. Operational elements, interconnection of the operational elements, and instrumentation of the site are identified within the composite model file. Responsive to user input, a mechanical integrity program is generated including processes for assuring the site is in satisfactory condition to safely and reliably perform its intended purpose. Various field interface modes for viewing on a programmable interactive device permit field inspection of the site.

Abstract: A system and method for visualization of a mechanical integrity program are disclosed. In one embodiment, a mechanical integrity program server is configured to provide design, assurance, and verification functions that ensure a site, or a site under development, meets appropriate and intended requirements. Based on point cloud data and digital imagery collected from the site, a composite model file is built. Operational elements, interconnection of the operational elements, and instrumentation of the site are identified within the composite model file. Responsive to user input, a mechanical integrity program is generated including processes for assuring the site is in satisfactory condition to safely and reliably perform its intended purpose. Various field interface modes for viewing on a programmable interactive device permit field inspection of the site, which may be an as-built site or a site under development.