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15 July 2021 Microgrids Provide Resilient and Sustainable Energy Solutions for the Military 2020 J.W. Morris Sustaining Member Award Winner SAME Space Coast

Microgrids Provide Resilient and Sustainable Energy

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15 July 2021

Microgrids Provide Resilient and Sustainable Energy Solutions for the Military

2020 J.W. Morris Sustaining Member

Award Winner

SAME Space Coast

Black &Veatch 2

Black & VeatchOverview

106Offices Professionals

10,000+

Revenue in 2019$3.7B

Active Projects Worldwide

7,000+

Black & Veatch Federal CapabilitiesLeverages 100+ years of experience with the Federal Government providing consistent:

• Secure Facility Design Services• Integrated Services• Construction Services• Environmental Services

Provides consistent delivery on projects of all sizes and locations on time and on budget

75+Microgrid Projects

Black & 3Veatch

Leveraging more than 100 years of experience providing resilient solutions to our nation’s mission-critical facilities, infrastructure, and programs worldwide to the Federal Government

Federal ServicesBlack & Veatch

An AE Designer Perspective on Microgrids

Black &Veatch 5

Meet Our Speakers

Doug MackenzieEnergy Services ManagerBlack & Veatch, Federal

Dustin Rogge, PEMicrogrid Solutions ManagerBlack & Veatch, Power

Larry Almaleh, PE, PMPProject ManagerBlack & Veatch, Federal

Pat Carolan, PEAssociate Vice President, Program DirectorBlack & Veatch, Federal

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What is a Microgrid?

• Interconnected loads and distributed energy resources

• Acts as a single controllable entity

• Connects and disconnects from the grid

There are many definitions of microgrids, EPRI uses the first two bullets, we add the third bullet.

Substation = ~20 MW +

Feeder = ~5 to 20 MW

Multi-facility = ~ < 5 MW

Single facility = ~ 1 kW +

MICROG R I D

vs MINIG R I D

vs NANOG R I D

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What Can Microgrids Provide?

Microgrids apply industry’s most innovative technologies to:

Provide increased energy resiliency and operational flexibility for critical facilities

Provide cost saving from economic dispatch, market participation, and deferment of costs for traditional backup power systems

Provide local grid capacity and stability support

Provide increased fuel supply chain security through use of decentralized renewable electricity that produces power at the point of consumption

Decrease carbon footprint and meet sustainability goals

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Why Microgrids?

Drastic changes are leading to a paradigm shift in the power and energy system model.

Military installations are facing increasingly frequent and severe major events that cause power outages and disrupt mission continuity

The utility power system is undergoing a massive shift to renewable and intermittent electricity

Microgrids and distributed energy technology are being used to provide resilient and sustainable power within the new power and energy system model.

Your Mission Goes On Even if the Power Goes Out!

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Why Microgrids?

This new model is catalyzing the necessity of microgrids for the military as a tool to:

Actively participate in the energy market

Increase operational flexibility

Support the stability of their local power system

Provide resiliency and mission continuity during extreme events that cause power outages in the centralized utility

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Your Mission Goes OnEven if the Power Goes Out

Microgrids provide continuous energy – even if the power goes out your mission goes on!

The Grid is Under Constant Threat

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“ The risk is very real.Gerry Cauley, NERC President

U.S. Senate Energy & Natural Resources Committee TestimonyApril 4, 2017

”2012 | More than 8 million homes

lost power in 17 states due to Superstorm Sandy

2013 | Sniper attack on PG&E’s Metcalf transmission substation severely

damages 17 transformers

2015 | Cyber attack shuts down power to thousands in the Ukraine

2020 | More than 130,000 homes and businesses lost power due to the

devastating wildfires in California

2021 | Cyber attack on Columbia Pipeline

Design for Scalable Levels of Resilience

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Design can be optimized for unique mission requirements

Tier 1Tier 2

Tier 3Tier 4

Non-Critical LoadsPower Availability of 99.77% (Typical Utility

Annual Downtime ~2hrs)

Critical LoadsPower Availability of

99.99% (53 Minutes Annual Downtime)

More Critical LoadsPower Availability of 99.999% (5 Minutes

Annual Downtime)

Most Critical LoadsPower Availability of 99.9999% (30 Seconds

Annual Downtime)

Generation, Controls

Redundancy, Energy Storage

Automated Switching

8%

17%25%

50%

Sample Installation

Policy Updates

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• DoD policies establish resiliency baselineso National Defense Authorization Act (NDAA) 2021

establishes target power availability of 99.9%-99.9999%o 2020 FEB - Policy: SECNAV: Installation Energy Resilience

Strategy Benchmark availability for critical facilities ranges from

99.999% (five nines) to 99.9999% (six nines), i.e. no more than five minutes of down time per year

o 2020 FEB - Policy: Under Secretary of Defense: Metrics and Standards for Energy Resilience at Military Installations Memorandum “Deliver Resilience: Achieve 100% mission continuity for

Defense and Task Critical Assets and Infrastructure by establishing the capability to operate off grid for 14 days or a longer duration as determined by the Installation's Commanding Officer in consultation with the Mission Owner(s) by September 2025.”

o DON, P-602 Three Pillars of Energy Security, 2017 sets availability targets for total installations (i.e. non-critical missions): Benchmark criteria targets of 99.9886% for shipyards and 99.9772% for other installations

• Federal policies driving proliferation of DER and catalyzing market access, e.g. FERC 841, 2222

• State policies guide market participation and economic viability of energy projectso Regulated vs de-regulated energy marketso State policies and incentives [Reference DSIRE]

• Upcoming: Standalone ITC for energy storage and funds for R&D (American Jobs Plan)

Process to Increase Energy Security via Microgrids

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Quantitative analysis enables data-driven decisions for infrastructure development to maximize energy security and sustainability for DoD installations. The goal of these analyses are to increase system availability and resiliency at the lowest cost.

Technical approach to increase installation energy security via development of resilient and sustainable microgrids

RELIABILITY

Reliability Availability Maintainability (RAM) analysis of power and

energy systems is done via in-house Monte Carlo simulation software to

guide major design decisions and quantify

microgrid system availability against DoD

policy baselines.

STABILITY

Power system stability modeling is done in dynamic/ transient power modeling software and incorporates DoD loads, utility power systems, and DoD power generation (backup generation, solar PV), battery storage, and distribution

systems. Models stability in grid-connected and island-mode. Captures resource intermittency and dynamic

capabilities of energy generation sources and microgrid control system.

EFFICIENCY

Energy Profile Analysis is done using NREL’s system advisory model (SAM) to

size systems from multiple energy sources and loads.

Incorporates market participation for distributed energy resources (DER) and serves as basis for microgrid

LCCA.

COSTLife-cycle cost analysis (LCCA)

incorporates capital costs, sustainment

(OM&R), and revenue streams

(market participation).

Process to Increase Energy Security via Microgrids

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Qualitative assessments

• Review policies and regulation that enable or limit market participation• Stakeholder and asset ownership mapping• Environmental permitting assessment• Risk assessment • Supply chain security consideration• High impact low probability (HILP) event review (e.g. man-made events, or major weather events)• DER use-case review

Technical approach to increase installation energy security via development of resilient and sustainable microgrids

Sustainability and resiliency are complimentary principles if microgrid projects are well developed

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World Headquarters MicrogridBlack & Veatch

Microgrid solution provides ~1,300 MWh of power per year

Geothermal Electric Vehicle Charging Stations

Microgrid Energy Management Application

Rooftop Solar Photovoltaic (PV)

Battery Energy Storage System

Natural GasMicroturbines

Link to the virtual microgrid tour: https://www.youtube.com/watch?v=KBwKj5LKL0M&t=

Energy Cost Reduction & Power Stability

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Battery Use Cases• Battery Only

o Demand management Peak shaving Load shifting Demand response

o Ancillary services Frequency regulation Fast frequency response

• Genset o Optimization via BESS

• PV + o Genset integrationo PV ramp rate control via BESSo Increased self consumption of PVo Power quality

• Stacked use cases – what is practical? Ramp-rate control + Peak Shaving

• Early evening to sunset

BV WHQ Ramp-rate Control + Peak Shaving

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Let’s Explore Military Microgrid Projects

Marine Corps Air Station Miramar, San Diego, CA

Rendering from Marine Corps Base Pacific Region

Fort Hunter-Ligget, Jolon, CA

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Fort Hunter-Ligget, Jolon, CA MicrogridBlack & Veatch provided the design for medium voltage Microgrid which serves critical facilities at Ft. Hunter Liggett. The microgrid is first of a kind for the U.S. Army in that is relies on PV/Battery Storage for island mode when disconnected from the grid.• 100% PV Solar• +3 MWH Battery• +400 kW WTE• Lessons on Microgrids designed on inverter based

generation verses conventional rotating electro-mechanical generators

First of a kind microgrid that relies on PV/Battery Storage when disconnected from the grid

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Marine Corps Base (MCB) Pacific Region Microgrid

• Black & Veatch supported the programming phase for microgrid development at multiple DoD facilities in the Pacific

• The installations require (i) additional power capacity for baseload and backup requirements, (ii) power quality regulation, and (iii) the ability to island their critical missions for extended outages utilizing onsite fuel storage, fuel delivery plans, and renewable sources of energy to power their missions

• Black & Veatch screened technologies, performed risk assessments, reviewed environmental permitting and regulations, developed concept designs, defined technical requirements, developed cost estimates, and led stakeholder discussions.

• Black & Veatch performed reliability availability maintainability (RAM), power system stability, energy profile, and life-cycle cost analysis to serve as the quantitative basis for major design decisions. Provided data driven power and energy system

upgrades and improvements in the Pacific Region.

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Aerial View: MCAS Miramar

Microgrid Backup Power Plant• 4MW Diesel Generator Set• 3MW Natural Gas Generator Set • Central Microgrid Controller• Energy Storage

Energy Operations Center

250kW / 1MW Battery Storage

3.2MW Landfill Gas Energy Plant

356kW Thin-Film PV Roof Systems

511Kw & 435kW PV Carports

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Marine Corps Air Station (MCAS) Miramar Power Plant and MicrogridState-of-the-art energy system operated out of the air station’s Energy and Water Operation Center (EWOC). This advanced DoD microgrid is the first of its kind to:

• Successfully integrate a separate landfill power generation system into the microgrid, a feat not previously achieved, powering the entire installation

• Operated in fully automated mode when microgrid power where restored to the critical loads automatically by the microgrid Power Control System (PCS) software after a simulated utility power outage.

• Operated in economic mode when the microgrid manages the landfill power, PV and plant generation assets to provide most economic power sources.

"Our microgrid delivers capabilities that will make MCAS Miramar one of the most energy-forward defense installations in the nation,” said Col. Charles B. Dockery, commanding officer, MCAS Miramar.