Abengoa is working to produce renewable energy based hydrogen for commercial use either from reforming natural gas or electrolysis.

1. Business Development
1
Dr. Juan Fernández García
01/03/2017
Infrastructure:
Hydrogen Service
Stations

2. 321
Index
54
Compression, Storage
and Dispensing Systems
Outline of dispensing systems
Abengoa Innovation
Organization and strategic
approach
Abengoa’s Projects
Project references for hydrogen
service stations
Hydrogen Supply
Infrastructure
General outline of the plant
On-site Hydrogen
Production Systems
Electrolysis and reforming
systems
2

3. 1
Abengoa
Innovation
3

4. Abengoa Innovation
4
Hydrogen Production:
Procyon Project
300 kWe cogeneration plant, with electric
and thermal production, based on a molten
carbonate fuel cell (MCFC), from natural gas
as the only fuel.
Electronic Power Systems:
Aress Project
Design, execution and operation of a 1 MW
energy storage system, capable of softening
the production curve of a photovoltaic plant
or regulating both the frequency and the
supply voltage.
Aerospace
Main activities center around the electric and
electronicproducts for aerospace and defense
sectors, as well as enhancing synergies between
space-based and energy technologies.
1H

5. 2
Hydrogen
Supply
Infrastructure
5

6. Diagram of a hydrogen supply plant with on-site production
Hydrogen supply
infrastructure
6

7. 3
On-site
Hydrogen
Production
Systems
7

8. Diagram of reforming production systemsOn-site Production
8
MTS1 MTS2
HX
HX
Burner
HX
HX
HX HX HX Water
Flue gas
PSA / Membrane
exhaust gas
Fuel
Fuel
Oxygen
Reformer
Pure hydrogen gas
(>99% H2 vol)
1 2 3 4
PSA system
10- 40 bar
Membrane separation system

9. Diagram of production systems using electrolysisOn-site Production
9
Electrolysis stage
H2O
Water
treatment
Power
adaptation
system
Electricity
Separation stage
H2+ H2OO2+ H2O
H2
O2
Purification stage
Recycled H2O
Thermal control
system
Heat
H2 (to final application)
Tap water
Electricity from
the power grid

10. 4
Compression,
Storage and
Dispensing
Systems
10

11. Diagram of compression, storage and dispensing systems
Compression, Storage and
Dispensing
11
Time-Fill Configuration
H2Storage
(LowPressure)
HydrogenProduction
Hydrogen Production and buffer storage
Dispenser
(350baror700bar)
Compression and dispensing

12. Diagram of compression, storage and dispensing systems
Compression, Storage and
Dispensing
12
Buffer Fast Fill Configuration
H2Storage
(LowPressure)
HydrogenProduction
Hydrogen production and buffer storage
Dispenser
(350baror700bar)
High Pressure
Storage
Precooing
Compression, storage, precooling and dispensing

13. Diagram of compression, storage and dispensing systems
Compression, Storage and
Dispensing
13
Cascade Fast Fill Configuration
H2Storage
(LowPressure)
HydrogenProduction
Hydrogen production and buffer storage
Dispenser
(350baror700bar)
High Pressure
Storage
Medium Pressure
Storage
Low Pressure
Storage
Precooing
Compression, storage, precooling and dispensing

14. 5
Projects
14

15. Las Columnas
Service station in Sanlúcar la Mayor, Seville, Spain.
Service station producing hydrogen on-site by using water
electrolysis in an alkaline electrolyzer from photovoltaic solar
power.
Production capacity up to 25 kg/day.
Supply: 350 bar.
Project start date: 2005.
Project end date: 2009.
Co-financed by:
 Andalusian Regional Government (IDEA Agency).
 CTA.
 Science and Innovation Ministry.
 ERDF Funds.
Las Columnas: Sanlúcar La Mayor service stationProyectos
15

16. ESH2 2.0
Service station in Torrecuéllar, Seville, Spain.
Service station producing hydrogen by using water electrolysis in
a PEM electrolyzer from electricity from the grid.
Production capacity up to 65 kg/day.
Supply: 350 bar.
Project start date: 2013.
Project end date: 2015.
Co-financed by:
 Andalusian Regional Government (IDEA Agency).
ESH2 2.0: Torrecuéllar service stationProjects
16

17. Newbusfuel: EMT service station (municipal transport company)Projects
17
Newbusfuel
Design for a service station at the EMT facilities in Madrid, Spain.
Supplying a fleet of 100 buses.
Service station produces hydrogen by using water electrolysis in a
PEM electrolyzer from electricity from the grid and also by means
of reforming with steam from natura l gas.
Production capacity: up to 3000 kg/day.
Storage capacity: more than 5000 kg/day.
Supply: 350 bar.
Project start date: 2015.
Project end date: 2017.
Co-financed by:
 FCH-JU.

18. Co-financersProjects
18
Co-financing:
The following organizations have co-financed the projects:

19. Thank you.
19