electric energy growth
of hydrogen
sequences. fuel
requirement
traffic
2010
a range
the
fuel. The model calculations improved
energy
electrolytic electric hydrogen ation
generating
capacity
P. Kruger: 1137-l
147 (November
the world. 26( 11)
2001).
waste
examines
a possible
management
integrating
and
two
municipal
solid waste
hydrogen
produced
and energy management
scenarios
gasification,
gasification
methanol
-
scenarios
This
considers
concerning
the
the energy with
landfill, and four
gasoline-electric,
FCVs using hydrogen
Patents
UK
Patent number: WO 01169705
Proton-conducting polymer membrane with channels/capillaries for water
alternative
attainable
powertrains
and compared
within
for battery
electric
electric vehicles
conventional engines
with the potential vehicles
(ICEVs), The
with
based
on
primary
of primary
and primary
wind, solar or hydropower. there is potential efficiency
Matthey,
UK
Patent number: WO 0 1169706
Improved utilisation of fuel gases generated in SOFC reformer unit BMW
Germany
Patent number: WO 0 1I69707
FuelCellsBulletin No.41
oxidation
following
(November
on ink type
oxidation
was investigated
Pt catalysts: by
bare
NaBon@
on the
Pt electrode,
film,
on high-area
and
carbons
Pt
Pt
catalysts
in the form of an
the primary
existing
ICEVs.
All vehicles
Dohle,
voltammograms. loading,
desorption
type of carbon
concentration Nafion
from
energy
with
with an alternative
potentiostatic
were
studied.
oxidation
was found.
No
influence
parameters
of
of methanol
The Tafel slope on smooth
Pt catalysts
while on
time-dependent
140 and 90 mV/decade
values
were estimated
decays using data between
0.5 and 5 min. The specific dependent
film, Pt
and methanol
Pt was found to be about 90 mV/decade, supported
The
on cyclic
of Nafion
support
film on kinetic
steps.
was estimated charge
The influence
from the potentiostatic
in vehicles
Jiilich
and
area of Pt particles
energy resources:
electricity
powertrains
sweep
energy
such as BEVs, HEVs and FCEVs, compared
on Pt loading,
activity
was slightly
with a flat maximum
at
about 20% Pt. The activity of Pt/SAB catalyst was 2-3 times higher
than that of Pt/BP and Pt/XC-
72 catalysts. S.L. Gojkoviz,
T.R. Vidakovix:
Acta 47(4) 633-642
(1 November
Applicant: Equos Research,
Electrochimica 2001).
Japan
Patent number: US 6294277 and H.
Low- and high-temperature PEM stack combination for quick start-up
Germany
Reversible H, storage using alkali metal intercalated graphite composite Applicant:
Patent number: US 6294278
PEMFC with three-layered film for air electrode/support layer/fuel electrode
GM, USA
Patent number: US 6294142
Applicant: Murata
Low-cost process and system for water vapour hydrocarbon reforming
Manufacturing
Co, Japan
Patent number: US 6294279
Uniformly improved
with quick start-up
Applicant: Xcellsis,
Germany
cooled fuel cell stack, for power generation
Applicant: Honda,
Japan
Patent number: US 6294280
Vehicular
H, from natural gas
Applicant: Toyota
Applicant:
Methanol electrode
between
This study shows that
for doubling
using alternative
in
combustion
are based on three different
fossil fuels, biomass,
(HEVs)
is assessed
improvement
internal
calculations
for
Patent number: US 6294 149
supply
Applicant: Johnson
alternative
energy efficiency.
Applicant: GM, USA
Proton-conducting polymer membrane with voids for additional water reservoir within fuel cell Matthey,
Energy 26( 11) 973-989
from the hydrogen
potential
Patent number: WO 0 1I69704
Applicant: Johnson
M. ilhman:
potential
Patent number: WO 0 1I69708
ICI, UK
no ‘winner’
the
in terms of primary
active surface
technical
Applicants: Forschungszentrum
plates
among
powertrains
covered
Compact fuel cell stack with identical adjacent electrodes
End plates, current collector Applicant:
ht. J of
(November
efficiency
(BEVs), hybrid
efficiency
in four MSW
although
identified
Here methanol
systems.
G. Keoleian:
years. The potential
FCVs with
(incineration,
(hybrid
model
gasification
1209-1221
powertrain,
be
2001).
benefits over conventional
M. Melaina,
study
efficiency.
with recycling)
FCVs, hydrogen
the
and transportation
could
for primary
ink. The reaction was carried out using slow linear
and
from gasified MSW. Material
flows were modeled
transportation
of
technologies
fuel cell vehicles (FCVs) - by fueling
criteria, from MSW
conventional
potential
than vehicles with an improved
account
and fuel-cell electric vehicles (FCEVs) by
gasification
into
have a higher
supported
vehicles
transportation
(MSW)
Taking
Hydrogen Energy 26(11)
lo-20
enhancement
emerging
performs
but is advantageous
environmental
vehicles
Hydrogen as transportation fuel from solid waste gasification This study
performance.
production
to landfilling.
that hydrogen
gas
use were
Primary energy efficiency of alternative vehicle powertrains
power
Energy
Greenhouse energy
of
install-
electric
Int. J. of Hydrogen
as incineration,
feasible
2001).
growth
will require
throughout
of
energy efficiency
system
with hydrogen
MSW treatment
the additional
additional
overall
as efficiently
A. Bjorklund,
powertrain
was assumed.
for FCVs may provide
world
solid waste). The deemed
non-renewable
Gasification
suggests
hydrogen
efficiency
to sustain
fuel production
of significant
assess
to
additional
show that even with
facilities,
demand
used
the model
consumption
production
energy
and
compared
with
performance
2010-2020
time
to 2050,
gas or municipal
emissions
second
of the total
be operated
within
initial
scenarios
fraction
fleet could
statistics
natural
technological
the
sequence,
of growth
a significant
to expand
and energy
for
the
data on world
provides
In the second
examines
when
is likely
agencies in
sequence.
vehicle
in two time
of historical
vehicle,
official
conditions
when
industry
extrapolation
population, from
fuel production
from
long-term
In the first (2000-2010),
cell engine
rapidly,
to sustain
Motor
Corporation,
Japan
Patent number: US 6294276
Vehicular fuel cell system capable of maintaining humidifed PEM
Highly fluorinated ion-exchange/ non-functional polymer blends with enhanced tensile properties Applicant: DuPont,
USA
Patent number: US 6294612
0