big data meets the microgrid: the future of … · 2015. 10. 8. · big data meets the microgrid:...

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BIG DATA MEETS THE MICROGRID: THE FUTURE OF RENEWABLE ENERGY SYSTEM DESIGN Katrina Prutzman; Assistant Director, System Design Sarah Newman; Senior System Design Engineer

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BIG DATA MEETS THE MICROGRID:

THE FUTURE OF

RENEWABLE ENERGY SYSTEM DESIGN

Katrina Prutzman; Assistant Director, System Design Sarah Newman; Senior System Design Engineer

Who is UGE

What Is a Microgrid?

System Design

Site Analysis Tools

BIG DATA MEETS THE MICROGRID: THE FUTURE OF RENEWABLE ENERGY SYSTEM DESIGN

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What’s Next in Site Analysis

Provide distributed renewable energy solutions for business and government

WHAT WE DO

Toyota – Perth, Australia

WHAT WE HAVE

DONE

Serving the world’s leading companies

2,000 projects

in over 90 countries

“UGE offers solutions that allow us to reach our sustainability goals, while protecting our bottom line”– Tristam Coffin, Whole Foods Market

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UGE’s focus: Cheaper, more reliable energy

5-10 Year Payback 5-25% Savings w/ Financing E.g., Fortune 500 Rooftop

2-4 Year Payback 40-50% Savings w/ Financing

E.g., Developing Country Telecoms

ROOFTOP SOLAR MICROGRID

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WHAT IS A MICROGRID?

• Limited generation facilities serving many customers

• Line losses in transmission

• Many smaller generating facilities • Energy is used where it is produced

CENTRAL GENERATION DISTRIBUTED GENERATION

EUEC 2015

MICROGRID: • Comprised of distributed generation sources, storage, energy management, and loads • Capable of operating independently

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SYSTEM DESIGN

: Configuring multiple electrical and mechanical systems together to ensure the energy needs of a building or site are met at all times.

IMPORTANT FACTORS • Projected load • Available space • System cost • Resource availability

• Solar Insolation • Wind speed • Daylight hours • Temperature

CHALLENGES • Match production and load (100%

uptime) • Accurately predict system

performance • Resource fluctuation/Seasonality • Predictability for financing

EUEC 2015

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EUEC 2015

SYSTEM DESIGN

LIMITATIONS: • Safety factors • Overdesign • High cost

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SYSTEM DESIGN: SOFTWARE TOOLS

EUEC 2015

Helioscope • Developed by Folsom Labs • Panel layout, energy production

PVWatts • Developed by NREL • Estimates energy production and cost • Includes available incentives

PVDesign

• Developed by Solmetric • Incorporates SunEye shading analysis

HOMER • Developed by NREL • Microgrid system design

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UGE SET • Developed at UGE • Control energy modeling • Adjust variables and assumptions • Site specific design

SYSTEM DESIGN: SOFTWARE TOOLS

EUEC 2015

SET

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UGE SET OVERVIEW

EUEC 2015

Site information Range of solar array sizes, battery bank sizes, and number of turbines

Weather simulation Energy modeling

Financial calculations

Returns optimized solution Prioritizes by LCOE, CAPEX, OPEX or fuel usage

Output file with financial, energy and weather graphs

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WEATHER SIMULATION

EUEC 2015

• HISTORICAL data from NASA/NREL

• Hourly SIMULATED data:

Solar insolation

Wind speed

Temperature

• STATISTICAL modeling of resources

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ENERGY MODELING

EUEC 2015

• COMPONENTS: • Solar, wind, batteries, generator,

grid, power electronics

• Input variables: equipment specs, SITE REQUIREMENTS

• Time-series ENERGY GENERATION and system losses

• Maintenance scheduling, equipment replacement

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SIMULATION OUTPUT

EUEC 2015

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FINANCIAL OUTPUT

EUEC 2015

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COMPARE MODELS

EUEC 2015

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SUMMARY

EUEC 2015

• SET Capabilities: • Confident design of multi-component microgrid systems • >1 billion data points for each simulation • Smaller, less conservative designs • Financial forecasting

• Advantages: • Configure system accurately • Adaptability for special projects

• Bottom Line: • Reduce design time • Lower bid cost • Increase confidence in Renewable Energy

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THANK YOU

KATRINA PRUTZMAN: [email protected]

SARAH NEWMAN: [email protected]

EUEC 2015

SYSTEM DESIGN: CASE STUDY

• Client: Jordanian Armed Forces • Location: Remote telecom towers • Objective: Improve reliability, reduce

operating costs

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