what we do · 2017-05-17 · daily irradiance= 5 varies by season and locat ion 10 spot case input...
TRANSCRIPT
WHAT WE DO
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• Downrange Support
• Assessment & Evaluation
• Communications Planning
• Data Analytics &
Visualization
• Management
• Information Operations
• Interactive Web
• Marketing Communications
• Exercise Planning
• Media Monitoring
• Modeling/Simulation
• Operational and
Education/Training
• Operational Energy
• Program/Curriculum Development
• OSINT for Irregular Warfare
• Technical Training
• Position & Concepts Papers
• Website Design, Development and
Optimization
• Digital Engagement
TECHNOLOGY ENABLED SERVICES
SERVICES CYBER
SECURITY / OSINT
RESEARCH & ANALYSIS
INTERNATIONAL DEVELOPMENT
COMMUNICATIONS
Background
• Operational Energy Advisors/Trainers (REF/E2E)
• Barbaricum deployed over 200 systems 2011-2015
• Middle East, Africa
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Background
• Modular hybrid systems
• Systems configured on-site
• Extensive data was collected
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Define
• Hybrid Power System:
• Combination of energy sources
• Generator operation only when needed
• Generator provides “Power surety”
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Problem
• Hybrid systems relatively new technology
• What can it power?
• How much benefit comes from PV?
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Challenge
• Hybrid power systems have a large design space
• More solar input = less fuel consumption
• More energy storage = higher energy capture potential
• Is there a sweet spot?
• Fuel minimization?
• Cost minimization?
• Cube, weight and/or foot print minimization?
• How to perform tradeoffs in a tactical environment
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An expeditionary hybrid sizing tool is needed
Hybrid Tool Development
• Objectives
• Visually based
• Learning Tool
• Enables end user
• Low complexity
• Minimal training required
• Value added
• Highly mobile
• Tailored for 3kW – 10kW Hybrid Systems
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Promote adoption of hybrid systems
Assumptions
• Law of averages
• All available solar (PV) energy is harvested
• Platform loads are sufficiently random
• Standard component efficiencies
• AC pass through power
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Hybrid Tool Inputs/Outputs
SystemInputsParameter Value Notes
Gen_W= 3000 3000,5000or10000
AC_Charger_W= 2500 ACcharger(s)outputpower(W)Batt_Type(Li=0,LA=1)= 0 Impactsroundtripefficiencyandchargingstages
DailyIrradiance= 5 Variesbyseasonandlocation
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SpotCaseInputsParameter Value
Ave_Platform_Load(W)= 1000
Array_Size(W)= 1000Slient_Watch_Hours= 10
SpotCaseOutputsParameter Value Parameter ValueGenHours/Day= 8.63 GenOnlyFuel/Day= 5.77
GenOutput(kW)= 3.00 Fuelsavings/Day= 2.91GalofFuel/Hour= 0.33 %FuelReduction= 50
GalofFuel/Day= 2.86 Min.Rec.ESMkWh= 13.9
Example Hybrid System Gen
Run(LA)
0
2
4
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0 200 400 600 800 1000 1200 1400 1600 1800 2000 2200 2400 2600 2800 3000
Av
era
ge
Gen
era
tor
Ru
n (
Hr/
Day
)
Average Platform Load (Watts)
Solar Hybrid Analysis Tool
No PV
1000W PV Array
2000W PV Array
3000W PV Array
4000W PV Array
Spot Case
11.2 Hr
1000W
3kW Generator, 1kW av. load, 5kWh/m2 Irradiance
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13.2 Hr
Example Hybrid System Gen Run
(Li)
0
2
4
6
8
10
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22
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0 200 400 600 800 1000 1200 1400 1600 1800 2000 2200 2400 2600 2800 3000
Av
era
ge
Gen
era
tor
Ru
n (
Hr/
Day
)
Average Platform Load (Watts)
Solar Hybrid Analysis Tool
No PV
1000W PV Array
2000W PV Array
3000W PV Array
4000W PV Array
Spot Case
8.6 Hr
1000W
3kW Generator, 1kW av. load, 5kWh/m2 Irradiance
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10.0 Hr
Example Hybrid System Fuel Use
(Li)
0.00
1.00
2.00
3.00
4.00
5.00
6.00
7.00
8.00
0 200 400 600 800 1000 1200 1400 1600 1800 2000 2200 2400 2600 2800 3000
Av
era
ge
Da
ily F
uel
Co
nsu
mp
tion
(G
al/
Da
y)
Average Platform Load (Watts)
Solar Hybrid Analysis Tool
(MEP-831A 3kW Generator)
No PV
1000W PV Array
2000W PV Array
2000W PV Array
4000W PV Array
No Hybrid
Daily Fuel: 3kW Generator, 5kWh/m2 Irradiance
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2.9 Gal
1000W
Hybrid Tool Benefits Example 1
0.00
1.00
2.00
3.00
4.00
5.00
6.00
7.00
8.00
0 200 400 600 800 1000 1200 1400 1600 1800 2000 2200 2400 2600 2800 3000
Av
era
ge
Da
ily F
uel
Co
nsu
mp
tion
(G
al/
Da
y)
Average Platform Load (Watts)
Solar Hybrid Analysis Tool
(MEP-831A 3kW Generator)
No PV
1000W PV Array
2000W PV Array
2000W PV Array
4000W PV Array
No Hybrid
5.8 Gal
3.3 Gal
2.9 Gal
3kW Generator, 1kW av. load, 5kWh/m2 Irradiance
Generator/Battery reduce fuel consumption by 43% 1000W PV could reduce fuel by 50% 4000W PV could reduce fuel by over 75%* *Battery must be large enough to store excess PV energy
1.4 Gal
1000W
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Hybrid Tool Benefits Example 2
0.00
1.00
2.00
3.00
4.00
5.00
6.00
7.00
8.00
0 200 400 600 800 1000 1200 1400 1600 1800 2000 2200 2400 2600 2800 3000
Av
era
ge
Da
ily F
uel
Co
nsu
mp
tion
(G
al/
Da
y)
Average Platform Load (Watts)
Solar Hybrid Analysis Tool
(MEP-831A 3kW Generator)
No PV
1000W PV Array
2000W PV Array
2000W PV Array
4000W PV Array
No Hybrid
5.0 Gal
1.0 Gal
Generator/Battery only reduces fuel consumption by 80% 1000W PV could reduce fuel by an additional 10% 2000W PV could nearly eliminate fuel consumption* *Battery must be large enough to store excess PV energy
3kW Generator, 300W av. load, 5kWh/m2 Irradiance
0.5 Gal
300W
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What Tool Illustrates
• Largest gains are when generator is underutilized
• Hybrid system makes sense when gen. < 50% cap.
• Large gains come from generator/battery configuration
• Solar (PV) benefits may not out weigh
size/weight/cost/complexity
• System component efficiency has significant impact
• Lead Acid (LA) vs Lithium Ion (Li)
• Power conversion losses
• Can be used for “Right Sizing” hybrid systems
• Correctly match hybrid system with platform load
• Shows diminishing returns
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Applications
• Training Tool
• Shows hybrid system potential benefits
• Low cost
• Mission Planning Tool
• Cost/Weight/Size tradeoffs
• Enables Warfighter
• Decision Makers
• ROM monetary ROI
• Cost tradeoffs
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Next Steps
• Identify interested end users
• Create hybrid performance charts for specific systems
• Package tool in a smart phone app or browser
• Link atmospheric database
• Database expansion
• Develop platform load and hybrid system databases
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819 7th Street NW,
5th Floor
Washington, DC 20001
Jason Zumstein
Tel: 828.384.0414
www.barbaricum.com
Questions?