humboldt state university presentation (2005)

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Humboldt State University Student Design Team David Carter Juliette Bohn Nicole Campbell Dustin Jolley Stephen Kullmann Steve Lora Matthew Marshall Avram Pearlman Douglas Saucedo Anand Gopal Design Proposal for a Hydrogen Power Park

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Humboldt State University Presentation at the 2005 Hydrogen Student Design Contest

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Page 1: Humboldt State University Presentation (2005)

Humboldt State University Student Design Team

David Carter

Juliette Bohn

Nicole Campbell

Dustin Jolley

Stephen Kullmann

Steve Lora

Matthew Marshall

Avram Pearlman

Douglas Saucedo

Anand Gopal

Design Proposal

for a Hydrogen Power Park

Page 2: Humboldt State University Presentation (2005)

Humboldt State University Student Design Team

Definition of a Hydrogen Power Park

• Small to medium sized energy station in

close proximity to energy consumers

• Providing:

• Combined heat and power

• Hydrogen fuel

• High efficiency

• Reliability

• Reduced CO2 production

Page 3: Humboldt State University Presentation (2005)

Humboldt State University Student Design Team

Design Criteria

H2U Guidelines •Minimum of 100 kW Electrical Output

•Fueling • 2010: 50 kg per day

• 2019: 250 kg per day

•21,000 ft2 footprint

•Onsite hydrogen production

•Safety is paramount

Evolution Energy Systems Criteria

•Renewable fuel source

•High efficiency

•Integrated into our local community

•99.999% Fueling Reliability

Page 4: Humboldt State University Presentation (2005)

Cummings Road

Landfill

Page 5: Humboldt State University Presentation (2005)

Landfill Gas

CH4

Local Gas

Grid

Power Park

Electricity Heat

H2

Page 6: Humboldt State University Presentation (2005)

Humboldt State University Student Design Team Plan view (Year 2019)

Page 7: Humboldt State University Presentation (2005)

Humboldt State University Student Design Team

Fueling Station Simulation

Model Objectives

• Assess the reliability, serviceability, and economics of the

fueling station design by manipulating the

Number of Hydrogen dispensers (serviceability)

Number and type of Storage tanks (reliability)

Number of Hydrogen production units (reliability)

Page 8: Humboldt State University Presentation (2005)

Humboldt State University Student Design Team

Fueling Station Simulation

Model Objectives

• Minimize System Lifecycle Costs (C)

subject to

• Fueling Reliability (R):

%999.99%100arrived) vehicles(#

filled) vehicles(#R

2019

2010YR

2019

2010YR

Costs)Operation lSPPW(AnnuaCosts) areSPPW(HardwminC

Page 9: Humboldt State University Presentation (2005)

Humboldt State University Student Design Team

Fueling Station Simulation

Model Objectives

• Model Fueling Station Operations

• Vehicle arrival intensities

• Vehicle queuing characteristics

• Excess hydrogen production

Page 10: Humboldt State University Presentation (2005)

Humboldt State University Student Design Team

Fueling Station Simulation

Simulation Methodology • More details available through poster presentation

• Stochastic Queuing Theory Model • Fueling Station – Vehicle Interactions

• Cascading Storage Algorithm • Fueling Station – Hydrogen Storage Interactions

• Daily vehicle intensities increased annually • 10 vehicles per day (2010)

• 46 vehicles per day (2019)

• One hydrogen bus (2010 – 2019)

• System evaluated every second over design horizon

Page 11: Humboldt State University Presentation (2005)

Humboldt State University Student Design Team

Fueling Station Simulation

Simulation Results

• Equipment installation schedule over design horizon

• Station Serviceability (Design Year 2019)

• Approximately 17,000 vehicles serviced

• 28 vehicles waited with an average wait time of 2 minutes

• Daily Average: 45 vehicles and 1 Bus

• Maximum Observed Intensity: 11 vehicles in an hour

• Excess Hydrogen production (Design Year 2019)

• Daily Average: 38.8 kg-H2

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Page 12: Humboldt State University Presentation (2005)

Humboldt State University Student Design Team

Fueling Station Animation

Page 13: Humboldt State University Presentation (2005)

Humboldt State University Student Design Team

Safety Analysis

Building Codes

FMEA

Page 14: Humboldt State University Presentation (2005)

Humboldt State University Student Design Team

Safety Analysis

Major Failure Modes

Natural Disasters

Local Fire Dept. Approval

Page 15: Humboldt State University Presentation (2005)

Humboldt State University Student Design Team

Environmental Analysis

CEQA Compliance

• Draft Environmental Impact Report

Electricity produced with 40% less CO2

emissions when compared to

conventional electricity generation

technology

Page 16: Humboldt State University Presentation (2005)

Marketing and Education

Adaptive Management Plan

• Implement education/awareness programs

• Address outcomes

• Adapt programs

Marketing Campaign

• Industrial Revolution – Industrial Evolution

“There is no Revolution - Only Evolution”

Page 17: Humboldt State University Presentation (2005)

Other, $308

Fuel Cells

$750 K

FC Core

Replacement

$500 K

PSAs $240 K

Compressors

$170 K

Plumbing

$118 K

Dispensers

$97 K

City lot

$84 K

Building

costs

$1,456 K

Total Discounted Capital Investment: $3.2 million

Page 18: Humboldt State University Presentation (2005)

1511 kW CH4

84 kW In-house loads

415 kW H2 Fuel

442 kW electricity:

$0.09 / kWh

133 kW heat:

$0.60 / therm

Power Park Energy Balance (Year 2019)

Net system efficiency:

%661511

415442133

kW

kWkWkW

Page 19: Humboldt State University Presentation (2005)

Research grade

H2 Sales $604 K

H2 Vehicle

Fuel $193 K

Process Heat

Revenues $24 K

Electricity

$297 K

Fuel $195 K Continual

Costs

$177 K

O&M

$36 K

Operating Costs and Revenues (Year 2019)

Expenses

Revenues

Page 20: Humboldt State University Presentation (2005)

Results Of Economic Analysis

• “Six nines” H2: $39 - $47 per kg delivered

• By selling excess H2 for $47/kg in Silicon

Valley, we can sell H2 for $2.50/kg at the

pump.

Page 21: Humboldt State University Presentation (2005)

Humboldt State University Student Design Team

Questions ?