Benjamin Albany SAME Executive Briefing

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Net Zero Energy Plan for

MCLB Albany, GA

Frederick R. Broome, Jr., P.E.

Director, Installation & Environment Division

On behalf of the MCLBA Energy Team of Hubert “Ski” Smigelski, Lt. Cmdr. Jeff Benjamin, CEC, P.E.,

Mike Henderson, P.E., Nancy Hilliard, P.E., Eddie Hunt, CEM, & our CHM2Hill partners

1

Overview

Defining Net Zero Energy

Achieving Net Zero

Current Renewable Energy Projects

Future Renewable Energy Projects

Future Energy Profile

“Speedbumps” to Success

2

Net Zero Energy Definition

Assumed Definition

MCLB Albany will be a net zero energy installation by the year 2020 when it produces as much energy onsite from renewable energy generation or through the on-site use of renewable fuels, as it consumes in its buildings and facilities.

Net

Zero

Energy

Does not include:

Water

Vehicles

Waste

Consumption

Consumption Generation

Generation

3

The “Gap”

30% Energy Intensity Reduction

•Multiple mandates to conserve & use renewables, but

SECNAV goal of

50% of installations at Net Zero by 2020 closes the “gap” between them

Renewable Energy

Generation

4

Achieving Installation Net Zero

A balanced combination of reducing energy intensity while also increasing renewable energy generation

Diversity is important

For installation-wide net zero, largest impact comes from large scale industrial scale renewable energy generation platforms

A few large scale projects vs. lots of little projects

Collaboration with local industry and energy providers

The answer isn’t always inside the fence

5

Current Renewable Energy Portfolio

Landfill Gas

Roof Solar PV

Solar Hot

Water

Daylight

Harvesting

6

Current Renewable Energy Portfolio

Project

Daylight Harvesting

Solar Hot Water

Solar PV Generation (75 kW)

Landfill Gas Electrical Savings, Phase 1

Landfill Gas Thermal Savings, Phase 1

Grand Total

Annual Energy Generation

(MBtu)

150

222

307

46,659

58,596

105,934

7

Future Renewable Energy Systems

Landfill Gas, Phase 2

2 nd , 1.9 MW generator with waste heat recovery system

Ground Source Heat Pump

Multiple well fields for key areas of high energy consumption

Biomass

Local industry provider has biomass plant which also generates steam

Albany to provide steam to electricity generator

Other Renewable Energy Sources (Low Feasibility for

Albany)

Wind

Solar

Geothermal to Electricity

Fast Pyrolysis

8

Biomass – State Level

• The State of Georgia produces over 22 million tons biomass per year.

• Georgia is prioritizing energy resource development statewide. Only second to improved energy efficiency is

“utilization of GA significant biomass

resources.” (Georgia State

Energy Strategy)

Biomass – State Level

Georgia’s most

“biomass rich” land lies within a ~50 mile radius of Dougherty

County.

Feasibility of Generating Electricity from Biomass Fuel Sources in Georgia;

The University of Georgia Center for Agribusiness and Economic Development, 2003

Biomass – County Level

Biomass Resources in Dougherty

County, GA

Un-merchantable Standing Timber

(20-yr growth cycle)

Harvesting residues

Urban Wood Waste

Pecan shells

Neighboring Mill Residues

(Early Co., GA)

TOTAL Biomass Availability

Approx. Equivalent Energy

Availability*

(dry tons/yr)

60,800

22,000

1,000

2,500

50,000

136,300 dry tons/yr

115,855 MWh/yr

Future Renewable Energy Portfolio

Landfill Gas

Roof Solar PV

Solar Hot Water

Daylight Harvesting

Ground Source Heat Pump

Biomass Steam to Electricity

Landfill Gas

Roof Solar PV

Solar Hot Water

Daylight

Harvesting

Double Gas to

Electricity generation

Ground Source

Heat Pumps

Biomass Steam to

Electricity

12

Future Renewable Energy Portfolio

Project

Daylight Harvesting

Solar Hot Water

Solar PV Generation (75 kW)

Landfill Gas Electrical Savings, Phase 1

Landfill Gas Thermal Savings, Phase 1

Landfill Gas Electrical Savings, Phase 2

Landfill Gas Thermal Savings, Phase 2

GSHP (Multiple Buildings)

Biomass Generator to Electricity

Grand Total

Annual Energy Generation

(MBtu)

150

222

307

46,659

58,596

34,994

43,947

4,500

272,960

462,336

13

Future Energy Projects

Applicable FY Title

FY13 Aggregate Energy Savings Proj

Replace Inefficient HVAC Units

FY13 Total

FY14 3700 Geothermal USTES

Expand DDC System (87)

Install LED Streetlights

LFGE 2nd Generator

Smart Grid

FY14 Total

FY15

FY15 Total

FY16

Geothermal (Downtown)

GSHP (Lower Barracks)

Motion Sensors

Photovoltaic 50kW system HQ Building

FY16 Total

FY17 BOQ(10201/02) Net-Zero

PV A/C unit for Sentry Gates (Net Zero)

Update Building Insulation

FY17 Total

Bio-mass Plant Partnership w/GPC &

P&G FY18

FY18 Total

Grand Total

Est Total Energy Impact (MBtu)

(11,171)

Est Tot Renewable Energy

Generation (MBtu)

1,886

(9,285)

0

(12,687)

(1,400)

0

0

0

16,635

0

0

0

0

(14,087)

0

0

(2,000)

(150)

0

(2,150)

(942)

0

(1,555)

(2,497)

150

0

150

78,941

0

95,576

4,500

4,500

614

614

0

0

0

0

0

(28,019)

272,960

272,960

373,800

Estimated Program Cost: $21.1M

14

MCLB Albany’s Net Zero Forecast

Point of Net

Zero Energy

15

Constraints, Restraints & Challenges to achieving Net Zero

Getting data/control systems that are approved to work inside the firewall/DIACAP approval process

Support within the government to accurately estimate savings & feasibility of cutting edge technology

Measurement & Verification

Contractual, fiscal and technical complexity of large scale renewable projects

Lack of state tax incentives

Challenge of grouping various energy programs together (ESPC,

ECIP, EIP, ESTCP, etc...)

Contractual & fiscal challenges of partnerships with local industry and local government

State law (Territorial Act)

16

Questions?

17

Back Up Slides

Back Up Slides

18

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