Design underground or overhead wind farm collector systems.

“Design underground or overhead wind farm collector systems.” is a supplemental task performed by Wind Energy Engineers. Among the occupation's 16 rated tasks, workers place it 2nd by importance (#15 most important). About 54% of workers say it is relevant to their job.

This is a single occupation-specific task statement from O*NET. The figures below describe how central the task is to the job and what independent studies measure about AI and this kind of work — not a prediction that the task will be automated.

Work activities this task rolls up to

O*NET groups concrete tasks into broader work activities shared across many occupations.

• Design industrial systems or equipment. in Drafting, Laying Out, and Specifying Technical Devices, Parts, and Equipment

AI exposure

The OpenAI / Eloundou “GPTs are GPTs” study rates this task E2. Exposure with tools — software built on top of a language model (not the model alone) could cut the time by at least half.

Exposure measures whether a model could meaningfully speed the task up — it is an estimate of overlap with model capabilities, not a measure of whether the work will be done by software. The study's intermediate score (β) for this task is 0.50. Automation potential label: T1.

Other tasks in this occupation

• Create or maintain wind farm layouts, schematics, or other visual documentation for wind farms. · importance 3.9
• Provide engineering technical support to designers of prototype wind turbines. · importance 3.8
• Recommend process or infrastructure changes to improve wind turbine performance, reduce operational costs, or comply with regulations. · importance 3.7
• Investigate experimental wind turbines or wind turbine technologies for properties such as aerodynamics, production, noise, and load. · importance 3.6
• Create models to optimize the layout of wind farm access roads, crane pads, crane paths, collection systems, substations, switchyards, or transmission lines. · importance 3.5
• Develop active control algorithms, electronics, software, electromechanical, or electrohydraulic systems for wind turbines. · importance 3.5
• Develop specifications for wind technology components, such as gearboxes, blades, generators, frequency converters, or pad transformers. · importance 3.4
• Test wind turbine components, using mechanical or electronic testing equipment. · importance 3.4
• Oversee the work activities of wind farm consultants or subcontractors. · importance 3.4
• Test wind turbine equipment to determine effects of stress or fatigue. · importance 3.4
• Monitor wind farm construction to ensure compliance with regulatory standards or environmental requirements. · importance 3.2
• Direct balance of plant (BOP) construction, generator installation, testing, commissioning, or supervisory control and data acquisition (SCADA) to ensure compliance with specifications. · importance 3.0
• Analyze operation of wind farms or wind farm components to determine reliability, performance, and compliance with specifications. · importance 3.0
• Perform root cause analysis on wind turbine tower component failures. · importance 3.0

See all tasks on the Wind Energy Engineers page.

Sources for this page

Every figure above traces to a named public dataset and the exact release below — not hand-written opinion. See the full methodology for what each measure does and does not mean.

• O*NET 30.3 U.S. Department of Labor / National Center for O*NET Development
• “GPTs are GPTs” (Eloundou et al.) arXiv 2303.10130 OpenAI / academic

Data compiled June 2, 2026. Figures are estimates, not advice.

@misc{singulariki-task-16561,
  title  = {Design underground or overhead wind farm collector systems.},
  author = {{Singulariki}},
  year   = {2026},
  note   = {O*NET 30.3; “GPTs are GPTs” (Eloundou et al.) arXiv 2303.10130. Accessed June 7, 2026},
  url    = {https://singulariki.com/tasks/task-16561}
}