Author :
Malone, P. ; Apgar, H. ; Stukes, S. ; Sterk, S.
Author_Institution :
MCR Technol., LLC, El Segundo, CA, USA
Abstract :
Unmanned Aerial Vehicles (UAVs), also referred to as drones, are aerial platforms that fly without a human pilot onboard. UAVs are controlled autonomously by a computer in the vehicle or under the remote control of a pilot stationed at a fixed ground location. There are a wide variety of drone shapes, sizes, configurations, complexities, and characteristics. Use of these devices by the Department of Defense (DoD), NASA, civil and commercial organizations continues to grow. UAVs are commonly used for intelligence, surveillance, reconnaissance (ISR). They are also use for combat operations, and civil applications, such as firefighting, non-military security work, surveillance of infrastructure (e.g. pipelines, power lines and country borders). UAVs are often preferred for missions that require sustained persistence (over 4 hours in duration), or are “too dangerous, dull or dirty” for manned aircraft. Moreover, they can offer significant acquisition and operations cost savings over traditional manned aircraft. Because of these unique characteristics and missions, UAV estimates require some unique estimating methods. This paper describes a framework for estimating UAV systems total ownership cost including hardware components, software design, and operations. The challenge of collecting data, testing the sensitivities of cost drivers, and creating cost estimating relationships (CERs) for each key work breakdown structure (WBS) element is discussed. The autonomous operation of UAVs is especially challenging from a software perspective.
Keywords :
aircraft; autonomous aerial vehicles; costing; Department of Defense; NASA; aerial platforms; autonomous operation; civil applications; civil organizations; combat operations; commercial organizations; cost drivers; cost estimating relationships; cost estimating requirements; drone shapes; firefighting; fixed ground location; hardware components; human pilot onboard; infrastructure surveillance; manned aircraft; nonmilitary security work; operations cost savings; remote control; software design; unmanned aerial vehicles; work breakdown structure; Pipelines; Reconnaissance; Shape; Software; Standards; Surveillance; Unmanned aerial vehicles;