Elements of a Hydrogen InfrastructureElements of H2 Infrastructure, presentation Author: jgw...
Transcript of Elements of a Hydrogen InfrastructureElements of H2 Infrastructure, presentation Author: jgw...
Shanghai Industrial Fair + Hydrogen and Fuel cellsNov 3- 8, 2004, Shanghai, China
Elements of a Hydrogen Infrastructure
Jaco Reijerkerk BEng (Hons) MSc Hydrogen Solutions
© 2004 Linde Gas page 2
Introduction of hydrogen - by replacement of conventional fuel systems -
H2 carrier reformer cleaner
conventional fuel
CGH2
LH2
FC MH2
H2
fuel cell
combustion engine
common
infra structure
modified
© 2004 Linde Gas page 3
hydrogen - the energy carrier -
Hydrogen ...
... is more than a fuel.
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hydrogen - the energy carrier -
Hydrogen ...
... is storable electricity.
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fuel stations - the new fuel offers new opportunities -
Instead of deserts … … green areas.
© 2004 Linde Gas page 6
fuel stations - the new fuel offers new solutions -
For adaptation to future platform concepts suitable refuelling solutions are required.
GM Autonomy
© 2004 Linde Gas page 7
infrastructure & fuel stations - requirements -
• 24 hours available
• multiple customers simultaneously
• adaptable to current gas stations
• less than 3 minutes refuelling time
• dual configuration (liquid / gaseous)
• high purity Fuel Cell grade
• competitive costs
© 2004 Linde Gas page 8
fuel stations - universal cryogenic fuel station, principal scheme -
LH2 transfer pumpcapacity: 3.000 l/h
cryogenicpiston pump
supplyconnection
LH2-dispenser
LH2
dispenserstandard
fillingup to
3.000 l/h
vent flue
CGH2-high pressure
storageCGH2-dispenser
CGH2
dispenserstandard
fillingup to
350 bar
boil off gascompressor
boil off gasheater
ventgas; LH2 - filling
CGH2high pressure
evaporator
LH2 storage tank
valve &remote box
LH2fuel station
© 2004 Linde Gas page 9
• hydrogen?
• industrial infrastructure• production
• distribution
• automotive infrastructure• actual existing elements
• future elements
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Use of Hydrogen
Target: Automobile ApplicationNew Fields for Hydrogen
yesterday today tomorrow
Ehemals treibende KraftStagnierender Markt
Benzin, Fette, Dünger etc.Ca. 7-10% Wachstum pro Jahr
Zentrale Technik BrennstoffzelleGroßes Potenzial
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Linde Group - hydrogen activities -
Fossil PrimaryEnergy Source
Renewable PrimaryEnergy Source
HydrogenGenerator
HydrogenStorage
HydrogenLogistics
HydrogenDispenser
HydrogenMarket
ultimate goal for a sustainable“Hydrogen Society”
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Linde Group - hydrogen activities -
Fossil PrimaryEnergy Source
Renewable PrimaryEnergy Source
HydrogenDispenser
CombustionEngines
Fuel Cells
HydrogenStorage
HydrogenLogistics
HydrogenGenerator
ultimate goal for a sustainable“Hydrogen Society”
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production & distribution - from the source to the customer -
Gas productioncenter
Filling station
Pipeline
PipelineOn-site supply
Retailer
Transport of liquefied gas
Cylinder transport
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production & distribution - Linde steam reformer, Milazzo, Italy -
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hydrogen pipelines in Europe - examples -
Leuna
Buna
Bitterfeld
Halle
Leipzig
H2
N2
Dessau
H2
N2
N2
N2N2
O2
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transport equipment - comparison for LH2 and CGH2 -
Trailer forCompressed Gaseous Hydrogenwithlightweight compound bottles
total weight: 40 tHydrogen load: 530 kg
Trailer forLiquid Hydrogenwitha super insulated cryostat
total weight: < 40tHydrogen load: 3.370 kg
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hydrogen projects - EXPO 2000, Berlin, BMW 2000 -
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hydrogen projects - NECAR 4 (FC) with LH2 supply, DaimlerChrysler 2000 -
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hydrogen projects - ZAFIRA (FC) with LH2 supply, General Motors 2000 -
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European Hydrogen Initiatives - CUTE Clean Urban Transport Europe, 2002 -
FC-CITARO bus, DaimlerChrysler 2002
30 FC-city-busses running for 2 years in 9 European cities.
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hydrogen projects - hydrogen powered FC-forklift, Linde 2003 -
Fuel Cell BatterySTILLmember of the Linde Group
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fuel stations - provisional LH2 filling equipment, California, 2000 -
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fuel stations - manual operated LH2 fuel station, Hanover 2000 -
The manual fuel station …
… and the filling process.
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fuel stations - CGH2 fuel station, 700 bar technology, GM 2002 -
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fuel stations - Hydrogen Fuel Station, Tokyo 2003 -
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fuel stations - the ROBOT application on Airport Munich, 2000 -
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infrastructure & fuel stations - requirements -
• 24 hours available
• multiple customers simultaneously
• adaptable to current gas stations
• less than 3 minutes refuelling time
• dual configuration (liquid / gaseous)
• high purity Fuel Cell grade
• competitive costs
© 2004 Linde Gas page 31
fuel stations - universal cryogenic fuel station, principal scheme -
LH2 transfer pumpcapacity: 3.000 l/h
cryogenicpiston pump
supplyconnection
LH2-dispenser
LH2
dispenserstandard
fillingup to
3.000 l/h
vent flue
CGH2-high pressure
storageCGH2-dispenser
CGH2
dispenserstandard
fillingup to
350 bar
boil off gascompressor
boil off gasheater
ventgas; LH2 - filling
CGH2high pressure
evaporator
LH2 storage tank
valve &remote box
LH2fuel station
LH2 transfer pumpcapacity: 3.000 l/h
cryogenicpiston pump
supplyconnection
LH2-dispenser
LH2
dispenserstandard
fillingup to
3.000 l/h
vent flue
CGH2-high pressure
storageCGH2-dispenser
CGH2
dispenserstandard
fillingup to
350 bar
boil off gascompressor
boil off gasheater
ventgas; LH2 - filling
CGH2high pressure
evaporator
LH2 storage tank
valve &remote box
LH2fuel station
© 2004 Linde Gas page 32
fuel stations - universal cryogenic fuel station, after completion -
© 2004 Linde Gas page 33
conventional10% HY LE
7.000 Nm3/d
7.000 Nm3/d
10% HY LS
7.000 Nm3/d
7.000 Nm3/d
10% ELY
7.000 Nm3/d
3.500 Nm3/d3.500 Nm3/d
10% ELY L
7.000 Nm3/d
3.500 Nm3/d3.500 Nm3/d
10% SMR
7.000 Nm3/d
3.500 Nm3/d3.500 Nm3/d
10% SMR L
7.000 Nm3/d
3.500 Nm3/d3.500 Nm3/d
50% SMR
35.000 Nm3/d
17.500 Nm3/d17.500 Nm3/d
50% SMR L
35.000 Nm3/d
17.500 Nm3/d17.500 Nm3/d
50% ELY
35.000 Nm3/d
17.500 Nm3/d17.500 Nm3/d
• 50% H2 capacity: on-site Electrolysis50% ELY L
35.000 Nm3/d
17.500 Nm3/d17.500 Nm3/d
• 50% H2 capacity: on-site Electrolysis with Liquefaction100% HY L
• 50% H2 capacity: on-site Electrolysis with Liquefaction
• 100% H2 capacity: LH2 Supply (underground)
LH2 Tanks(unterirdisch)
Footprint of a conventional Fuelling StationFootprint of a conventional Fuelling Station• 10% H2 capacity: Test Operation with LH2 Supply (underground)(above ground)Supply
Footprint of a conventional Fuelling Station• 10% H2 capacity: Test Operation with LH2 Supply
Footprint of a conventional Fuelling Station• 10% H2 capacity: Test Operation with LH2 (above ground)
• 10% H2 capacity: on-site Electrolysis with Liquefactioncapacity: on-site Electrolysis with Liquefaction capacity: on-site Electrolysis with Liquefaction
Footprint of a conventional Fuelling Station• 10% H2 capacity: Test Operation with LH2 Supply (above ground)
• 10% H2 capacity: on-site Electrolysis
Footprint of a conventional Fuelling Station• 10% H2 capacity: Test Operation with LH2 Supply (above ground)
• 10% H2
• 10% H2 capacity: on-site Steam Reforming with Liquefactioncapacity: on-site Steam Reforming with Liquefaction capacity: on-site Steam Reforming with Liquefaction
Footprint of a conventional Fuelling Station• 10% H2 capacity: Test Operation with LH2 Supply (above ground)
• 10% H2 capacity: on-site Electrolysis with Liquefaction
• 10% H2 capacity: on-site Steam Reforming
Footprint of a conventional Fuelling Station• 10% H2 capacity: Test Operation with LH2 Supply (above ground)
• 10% H2 capacity: on-site Electrolysis with Liquefaction
• 10% H2
• 50% H2 capacity: on-site Steam Reforming with Liquefactioncapacity: on-site Steam Reforming with Liquefaction capacity: on-site Steam Reforming with Liquefaction
Footprint of a conventional Fuelling Station• 10% H2 capacity: Test Operation with LH2 Supply (above ground)
• 10% H2 capacity: on-site Electrolysis with Liquefaction
• 10% H2 capacity: on-site Steam Reforming with Liquefaction
• 50% H2 capacity: on-site Steam Reforming
Footprint of a conventional Fuelling Station• 10% H2 capacity: Test Operation with LH2 Supply (above ground)
• 10% H2 capacity: on-site Electrolysis with Liquefaction
• 10% H2 capacity: on-site Steam Reforming with Liquefaction
• 50% H2
Footprint of a conventional Fuelling Station• 10% H2 capacity: Test Operation with LH2 Supply (above ground)
• 10% H2 capacity: on-site Electrolysis with Liquefaction
• 10% H2 capacity: on-site Steam Reforming with Liquefaction
• 50% H2 capacity: on-site Steam Reforming with Liquefaction
Footprint of a conventional Fuelling Station• 10% H2 capacity: Test Operation with LH2 Supply (above ground)
• 10% H2
• 10% H2
• 50% H2
© 2004 Linde Gas page 34
fuel stations - development & integration of an automotive LH2 coupling -
Integration
Thank you.