FERC Application — Docket P-14993

IPSP — Intermountain Pumped Storage Project

By Premium Energy Holdings, LLC. Engineering by Power-Tech Engineers, Inc. & WAPCOS Ltd. — Delta City, Millard County, Utah.

Background

Preliminary permit issued December 18, 2019

On December 18, 2019, the FERC issued the preliminary permit to Premium Energy Holdings, LLC (PEH), for a period effective the first day of the month in which the permit was issued (December 1, 2019). The purpose of a preliminary permit is to preserve the right of the permit holder to have first priority in applying for a license for the project under the Federal Power Act, allowing Premium Energy Holdings to conduct investigations and secure the necessary data to determine the feasibility of the project and to prepare a license application.

About the project

2,000 MW near Delta City, Utah

The Intermountain Project will be located northeast of Delta City within Millard County, Utah. The proposed 2,000 MW pumped storage project would use a proposed DMAD 2 Reservoir as the lower reservoir, one mile upstream of the existing DMAD Reservoir. The proposed upper reservoir could be any of three alternatives located east of the project in the Canyon Mountains Range.

Full project description

Canyon Mountains Range landscape at the proposed Intermountain project area
Project area — Canyon Mountains Range, Millard County, Utah Photograph
Expected timeline

From permit to commissioning

2019 Preliminary Permit Application
2020–2022 Pre-Filing Process
2022–2024 Post-Filing Process
2025 Engineering and Procurement
2025–2027 Project Construction
2028 Commissioning

View detailed timeline graphic

Documents

PEH licensing documents

Premium Energy Holdings, LLC develops and publishes documents throughout the licensing process. The following are associated with the Integrated Licensing Process (ILP).

FERC licensing documents

The Federal Energy Regulatory Commission (FERC) issues documents related to the Intermountain Pumped Storage Project licensing. A copy of the PAD and related official documents are available for review on FERC's website, using docket number P-14993.

Search FERC eLibrary — P-14993

Project team
Director
Victor Rojas
Engineering
PTE Inc. / WAPCOS Ltd.
Regulatory Representative
Maria Hernandez
Media Public Affairs
Vicki Rojas
Land Representative
Bruce Hammer
Government Affairs
Rod Clark
Environmental Representative
Bruce Hammer
Stakeholders Outreach
John Dennis
Studies

Keeping the impact minimal

To follow regulations and keep the impact on the natural environment as minimal as possible, Premium Energy Holdings, LLC will be assessing and studying the following.

Environmental
  • Aquatic species
  • Water volume and quality
  • Vegetation
  • Noise impact
  • Gas emissions
Cultural & socio-economic
  • Land use
  • Recreational uses
  • Economic analysis
  • Tribal presence
Engineering
  • Energy supply benefit to the state
Virtual open house — October 21, 2020

Project insight

Premium Energy Holdings, LLC appreciates the presence of everyone who attended our Open House in Delta City, UT. Details of the project are publicly presented — if you live near the proposed location, or are simply interested in what has been presented, we gladly receive your feedback and questions.

Questions and inquiries

For further information, or to submit questions, please contact Maria Hernandez:

Phone(909) 595-5314

Download the presentation

FAQ

Pumped storage, explained

What is pumped-storage hydropower?

Please check out this video provided by the U.S. Department of Energy: What is Pumped-Storage Hydropower.

Why is pumped storage relevant to the U.S. power grid?

Currently, pumped storage accounts for around 95% of all utility-scale energy storage in the U.S. However, as stated by the Energy Information Administration (EIA), most of the pumped storage generators were built in the 1970s. The ever-increasing energy demand challenges electric utilities and investors to keep pace by developing long-term projects that help cover the electric demand. Besides providing energy supply, pumped storage also provides reliability to the grid.

What is the difference between open-loop and closed-loop pumped storage?

Closed-loop pumped storage projects have a lower and upper reservoir which are not connected to any other body of water (such as a river); the same water is repeatedly used in the charging and discharging process. Open-loop projects are connected to an ongoing stream of water, which is used in the charge/discharge process to store and deliver energy — storage capacity depends on the water available in the natural water feature.

What is the benefit of a closed-loop system over an open-loop system?

In general, closed-loop projects have less impact on aquatic resources. These impacts are primarily related to the initial reservoir filling process.

Why do we need energy storage?

Energy storage consists of collecting electrical energy when there is an excess of generation, and delivering it to the grid later. The most common large-scale energy storage is pumped storage, which can replace thermal generation, substitute the need for spinning reserve, or increase reliability and stability of the grid. It is also used to store energy from intermittent renewable sources such as solar or wind farms.

How can pumped storage help with renewable-energy integration?

Pumped storage facilities can help meet greenhouse gas emissions reduction targets and build clean renewable energy capacity. In addition, these plants enhance the reliability and stability of the grid.

Is pumped storage safe?

Any storage solution must comply with safety requirements in order to be sustainable. The main risk related to pumped storage facilities is dam safety: dam failure can affect downstream communities and the environment. Nevertheless, pumped hydro technology is mature, dam risks are generally well understood and managed, and the frequency of dam safety events is very low.

What is the lifespan of a pumped storage project?

Pumped storage hydro is a proven technology with a typical lifespan well over 50 years, and it is the most cost-effective solution for large-scale energy storage — compared to batteries, which currently last between 8 and 15 years.

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