
Ammonia
as Virtual Hydrogen Carrier
Grigorii Soloveichik,
Program Director
H2@Scale Workshop
November 16-17,
2016

Who am I?
•
Moscow
State University
–
MS (1972), PhD in Inorganic Chemistry (1976),
Doctor of Sciences in Chemistry
(1992)
•
Institute
of
Chemical
Problems of Chemical Physics
RAS
(Chernogolovka,
(1975
–
1993)
-
metal
hydrides, Ziegler-Natta
catalysis,
metallocene
chemistry, electrochemistry,
organometallic
hydrogenation catalysis, bimetallic complexes, C-H
bond activation
•
Visiting scholar
at
Indiana University,
Bloomington
(1991),
Boston College
(1993
–
1995)
•
Moltech
Corp.
(now Sion Power) (Tucson, AZ)
(1996
–
1998)
-
anode protection and electrolyte development for lithium metal/sulfur
battery
•
GE Global Research
(Niskayuna, NY)
(1998
–
2014)
-
created and shaped internal and external projects
-
direct
synthesis of
diphenylcarbonate
-
homogeneous and heterogeneous catalysis projects
-
electrosynthesis
of small organic molecules
-
hydrogen storage and production (water electrolysis)
-
CO2
capture
-
sodium/metal
chloride
battery, flow
batteries (ARPA-E
performer)
-
Director of Energy
Frontier Research Center for Innovative Energy
Storage
•
ARPA-E
(2015
–
-
Program Director focusing on electrochemical energy storage (secondary
and flow
batteries), generation (fuel cells), chemical processes (catalysis,
separation

Why I work at ARPA-E?
ARPA-E
is a unique agency
•
Creating new learning curves
-
failure acceptance

•
Program driven
-
no roadmaps
•
Innovative start-up
culture
-
combination of fresh blood and corporate memory
•
Close involvement in project planning and execution
-
cooperative agreement

•
Technology to market focus
-
techno-economical
analysis
-
minimum value prototype deliverable
-
technology transfer
Ammonia as
energy vector and hydrogen
carrier
•
Direct
agricultural application
•
Production
of nitrogen-based
fertilizers
•
Feedstock
for
chemical processes
•
Energy storage
•
Energy transportation
•
Direct fuel for
-
fuel cells
-
ICEs
-
turbines
•
Hydrogen carrier
Comparing ammonia with carbon-neutral
liquid fuels









Improving ammonia production
Advanced Haber-Bosch
process
•
Lower
pressure
synthesis (adsorptive enhancement)
•
Low temperature synthesis (catalyst development)
•
Ambient pressure synthesis (plasma enhancement)
Electrochemical synthesis
•
Solid state medium temperature cells
•
Low temperature PEM and AEM cells
•
Molten salt electrolytes




Green Play Ammonia™, Yielder® NFuel Energy.
Spokane, Washington. 99212
www.exactrix.com
509 995 1879 cell, Pacific.
exactrix@exactrix.com
|