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THESTATUS
OFWINDIN
AFRICAO
C
T
O
B
E
R
2
0
2
3TABLE
OFCONTENTSListofFigures3ListofTables3ExecutiveSummary5Chapter1Introduction11121620273038Chapter2WindFarmsinAfricaChapter3PotentialofWindPowerinAfricaChapter4WindProjectCaseStudiesChapter5BenefitsofWindDevelopmentChapter6OverviewofWindEnergyDriversChapter7Conclusions2
|GWECStatusofWindinAfricaReport2023LISTOFFIGURESFigure1:MappingoftheidentifiedwindfarmsinAfricaSource:GWECMarketIntelligence2023Figure2:ParcEolienTaiba
N’diaye121213131415Figure3:AnnualinstalledwindcapacityinAfrica.Source:GWECmarketintelligence2023Figure4:Installedwindcapacitybycountryasof2023.Source:GWECmarketintelligence2023Figure5:DetailedInstalledwindcapacitybyregion.Source:GWECmarketintelligence2023Figure6:RegionalcomparisonofInstalledwindcapacityinAfrica.Source:GWECmarketintelligence2023Figure7:InstalledwindcapacitybyWindturbineOEM.Source:GWECmarketintelligence2023Figure8:MapofwindpotentialinAfricafromtheGlobalWindAtlasshowingwindspeedsat100m.Source:GWECmarketintelligence20231516Figure9:Technical
PotentialforWindinAfricabyregion.Source:IFC1717181819202728282930Figure10:PotentialofvariousAfricanRegionsFigure11:Potentialtechnicalcapacitybycountryadjustedtocapacityfactor(FirmCapacity).Source:IFCFigure12:Top
10Countriesbyannouncedwindcapacity(atvariousstagesbeforeconstruction)Figure13:MapshowingthespreadoftheidentifiedplannedprojectsFigure14:LocationofthesixsampledwindfarmsFigure15:SummaryofachievementsofthewindsectorinAfricaFigure16:Easeoflocalisingmanufactureofwindenergyconvertercomponents.Source:GWECmarketintelligence2023Figure17:MapofAfricahighlightingapossiblecommonmarketforwindcommodities.Figure18:WindCapacitiesawardedintheREIPPPProunds.Source:GWECmarketintelligence2023Figure19:CrossBoundaryEnergy’s
QMMhybridisedproject.Source:GWECmarketintelligence2023Figure20:TheMwengawindfarm,supportingMwengaHydro.Source:RiftValley
Energy.
Source:GWECmarketintelligence
312023Figure21:Egypt’s
generatedelectricity(TWH)bysource.Source:EmberClimateFigure22:SouthAfrica’s
generatedelectricity(TWH)bysource.Source:EmberClimateFigure23:EhoalaWindfarm(projectalsoincludessolarandbatterystorage)323232333434353537Figure24:
KoudaalBaidaandLaPerrierewindfarms.Source:MASENandTotal
energiesFigure25:Greenhydrogensteelandammoniaproductionprocessdiagram.Source:GWECmarketintelligence2023Figure26:AnnouncedwindfarmstiedtogreenhydrogenproductioninEgyptandNamibia.Figure27:AK6electricbusinNairobi.Source:BasiGo()Figure28:TheZemboelectricmotorbike.Source:Zembowebsite-www.zem.boFigure29:ThePowerPoolsofAfrica.Source:GWECmarketintelligence2023LISTOFTABLESTable
1:Top
10announcedwindprojectsbysize19GWECStatusofWindinAfricaReport2023|3TheStatusofWindinAfricaReportissupportedbyGET.investGET.invest
is
a
European
programme
that
mobilises
investment
in
clean
energy
projects.
Services
are
primarily
aimed
at
private
sector
com-panies,
project
developers
and
financiers
to
build
sustainable
energy
markets
in
sub-Saharan
Africa,
the
Caribbean
and
the
Pacific.
Theycomprise
tailored
access-to-finance
advisory
for
clean
energy
developers,
a
funding
database,
market
information,
and
financial
sectorsupporttoincreaselocalcurrencyfinancing.Additionally,GET.invest
collaborateswithbusinessassociationsoneventsandnetworkingop-portunities.
Together
with
the
Access
to
Energy
Institute,
the
programme
implements
the
data
and
transaction
platform
Prospect.
Since
2022,GET.investserves
astheTeam
EuropeOneStopShoptohelpdevelopersnavigateandaccessEuropeansupportandfinancinginstruments.TheprogrammeissupportedbytheEuropeanUnion,Germany,Sweden,theNetherlandsandAustria.Findoutmoreatwww.get-invest.eu.Disclaimer©
2023
GWEC.
The
information
in
this
report
is
taken
from
sources
considered
reliable,
but
its
accuracy
and
completeness
are
not
war-ranted,
nor
are
the
opinions,
analyses,
and
forecasts
on
which
they
are
based.
GWEC
cannot
be
held
liable
for
any
errors
in
this
database,neithercanGWECbeliableforanyfinanciallossordamagecausedbyusingtheinformationpresentedinthisreport.4
|GWECStatusofWindinAfricaReport2023EXECUTIVESUMMARYThe
Global
Wind
Energy
Council
(GWEC)
has
produced
“The
Status
of
Wind
in
Africa”
report
to
take
stock
of
wind
energy’sfootprint,
the
role
wind
currently
plays
and
its
bright
future
prospects
across
the
Continent.
The
report
maps
out
the
Africa’scurrent
installed
wind
power
plants
of
capacity
greater
than
1MW,
provides
readers
a
better
understanding
of
the
currentstateofprojectactivityinAfrica’s
windspaceandpointstothefuturebyhighlightingthepipelineofannouncedprojectsandvariousdriversofnewwindcapacityinstallations.Africa’s
InstalledWindPowerCapacityAt
the
end
of
2020
IRENA
estimated
that
6.5GW
of
wind1was
installedin
Africa
with
themain
markets
being
SouthAfrica,
Morocco
and
Egypt,
and
secondary
markets
beingKenya,
Ethiopia,
and
Tunisia.
The
identified
installed
ca-pacity
in
this
study
is
9
GW
considering
plants
that
areinstalled
and
under
construction
and
scheduled
to
be
com-missioned
in
2023.
Apart
from
additional
installations
inthe
mentioned
markets,
new
builds
have
occurred
in
Sene-gal,Reunion,Nigeria,Tanzania
andDjibouti.TherehasbeenasteadyincreaseintheinstalledcapacityofwindinAfricasincetheyear2000.Thisgrowthhasseenannualinstallationsof
800MW
and
above
during
2018,
2020,
2021
and
2022.
The
year
with
the
highest
installation
being
2014
where
1132
MW
wasinstalled.Source:GWECmarketintelligence20231IRENA
and
AfDB
(2022),
Renewable
Energy
Market
Analysis:
Africa
and
Its
Regions,
International
Renewable
EnergyAgencyandAfricanDevelopmentBank,AbuDhabi,andAbidjan.GWECStatusofWindinAfricaReport2023|5Considering
the
five
sub-regions
of
Africa,
North
Africa
leads
in
terms
of
total
installed
capacity
due
to
the
influence
andearly
onset
of
renewable
energy
programs
in
Egypt
and
Morocco
which
saw
initial
utility-scale
wind
project
commissioning
in1988and2000,respectively.SouthernAfrica,dominatedbywindfarmsinSouthAfricalargelyinstalledthroughtheREIPPPscheme,
has
the
second
highest
installed
wind
capacity.
Eastern
Africa
comes
in
third
with
several
operational
wind
farms
inEthiopiaandKenya.Source:GWECmarketintelligence2023Overall,
140
projects
planned
across
Africa
representing
86GW
of
planned
new
wind
capacity
were
identified
and
mapped.
Theseincluded
projects
in
several
countries
new
to
wind
such
as
Angola,
Chad,
Mali,
Ghana,
Sudan,
Niger,Madagascar,Uganda,
Zambia,
andMalawi.
For
example,
700MW
of
planned
wind
capacity
was
identified
in
Angola
across
13
projects,
illustrating
the
untapped
technicalpotential
found
even
in
Central
Africa.
More
capacity
additions
are
planned
for
the
established
wind
markets
in
Southern,
Eastern
andNorthernAfrica.Egypt
looks
set
to
dominate
the
wind
sector
in
Africa
over
the
coming
decade
considering
its
significant
technical
potential,
existinginstalled
capacity,established
local
manufacturing
industry
(e.g.
steel
towers,
electrical
switchgear,and
cabling)
and
numerous
recentlyannounced
projects.
The
Government
of
Egypt
notably
announced
at
COP27
in
Sharm
El
Sheikh
the
signing
of
agreements
for
one
of
theworld’slargest
wind
farms,
a
USD
10
billion,
10GW
wind
farm
in
the
Gulf
of
Suez
region.
A
land
agreement
for
this
project
was
signed
byHassan
Allam
Utilities,
Infinity
Power
and
Masdar
in
early
June
2023.
The
Egyptian
Government
also
previously
agreed
with
Saudi
Arabia’sACWA
Power,
along
with
Hassan
Allam,
to
execute
a
1.1GW
wind
farm
at
Gabal
el
Zait
on
the
Gulf
of
Suez
scheduled
to
be
commissionedby
2026.
Scatec
ASA
is
planning
two
1.5GW
wind
farms
and
a
consortium
of
Orascom
Construction,
Toyota
Tshusho
and
Eurus
Energyis
planning
3GW
wind
farm.
Some
notable
projects
have
been
announced
in
the
continent
mainly
in
the
countries
with
highest
technicalpotentialforonshorewindpower.6
|GWECStatusofWindinAfricaReport2023Source:GWECmarketintelligence2023CaseStudiesA
total
of
83
installed
wind
farms
were
identified
in
the
study
from
four
sub-regions
of
Africa.
This
section
of
the
report
examines
six
uniquewind
projects
for
being
the
first
of
their
kind
in
their
country,
uniqueness
in
the
value
to
their
grid,
significant
capacity
size
and/or
for
in-volvementoflocalfinancingandcommunityparticipation.Thesixprojectshighlightedinthisreportare:••••••TheHopefieldWindFarminWesternCapeProvince,SouthAfrica.COD2014.TheMwengaWindFarminIringaRegion,Tanzania.
COD2020.LeParcEolienTaiba
N’diaye,RégiondeThiès,Senegal.COD2020.TheWest
BakrWindFarm,RedSeaGovernorate,EgyptCOD2021.LeParcEolienNassimKoudiaAlBaida,RégiondeTanger-Tétouan-AlHoceïma,Morocco.COD2000.TheLakeTurkana
WindFarm,MarsabitCounty,
Kenya.COD2018.GWECStatusofWindinAfricaReport2023|7BenefitsofwinddevelopmentThe
development
of
the
wind
energy
sector
in
Africa
presents
opportunities
to
impart
socioeconomic
benefits
to
households,
communities,and
countries.
These
benefits
include
employment
opportunities,
leading
up
to
and
during
the
roughly
25-year
lifetime
of
a
utility-scale
windasset,cleanpowerforhouseholdsandindustrialconsumers,direct(foreignandlocal)investments,includinginsupplychainfacilities.Thediagrambelowsummarisestheachievementssofarwiththeapproximately9GWofidentifiedprojects.The
deployment
of
wind
energy
in
Africa
has
created
12,400
di-3rect
jobs
during
and
after
construction
across
3000
MW
of
projectsidentified
in
this
study.
These
have
been
in
Kenya,
Tanzania,
SouthAfrica,
Senegal,
Egypt,
and
Morocco.
To
provide
some
context,
the310MW
Lake
Turkana
project
in
Kenya,
Africa’s
largest
wind
farmto
date,
employed
2,500
during
construction
and
employs
329
foroperations.
Employing
600
during
construction
and
32
during
op-eration;
the
Taiba
N’diaye
wind
farm
in
Senegal
employing
600during
construction
and
24
during
operation;
and
the
Mwenga
windfarm
in
Tanzania
employing
50
during
construction
and
6
duringoperation.
The
total
direct
job
creation
from
wind
energy
in
Africais
several
times
higher
given
these
projects
are
just
a
fraction
of
thetotalidentifiedwindcapacityof9,000MW,
asof2023.Inadditiontolocaljobcreation,windenergyalsogeneratesanumberofaddi-tionalbenefitsforcountriesinAfrica.Today’s
driversan
installed
capacity
of
42%
renewable
energy
in
its
power
mix
by2030
according
to
its
nationally
determined
contributions
(NDCs)under
the
COP
process.
South
Africa,
with
a
generation
mix
that
isheavily
reliant
on
coal,
has
also
been
pursuing
renewable
energynow
having
concluded
its
6th
round
of
renewable
energy
auctions.AdditionalCapacityandEnergyWind
has
contributed
to
the
growth
of
installed
capacity
and
avail-able
energy
to
African
grids
that
have
capacity
and
energy
con-straints.
The
Lake
Turkana
wind
farm
contributes
17%
of
Kenya’sinstalled
capacity
while
the
Taiba
N’diaye
wind
farm
increasedSenegal’s
installed
capacity
by
15%.
Wind
farms
provide
neededcapacity
and
energy
to
increase
the
level
of
electricity
supply
in
thecountries
looking
to
expand
supply
and
access
to
electricity,
,
with
theaddedbenefitofsupplyingrenewablepower.As
of
2022
the
country’s
installed
capacity
of
54GW
comprised53.4GW
wind,
2.3GW
solar
P
V,
0.5GW
concentrated
solar
power,0.6GWhydro,39.8GWcoaland3.4GWdiesel.GridstabilisationWind
has
been
deployed
together
with
other
technologies
to
stabi-lise
grids
by
complementing
other
generation
sources.
Wind
andsolar
show
complementarity,
with
the
daytime
dips
in
wind
beingcomplimented
by
peaks
in
solar,
and
loss
of
solar
in
the
night
oftenmatched
with
strong
wind
supply.
As
such,
wind
has
been
particu-larly
effective
in
firming
up
solar
supply.Hybridisation
has
also
beenundertaken
by
combination
with
hydro
as
in
the
2.4MW
Mwengawind
Farm
in
Tanzania.
The
wind
farm
is
installed
in
an
isolated
gridrunning
primarily
on
a
mini-hydro
plant
of
4
MW.The
farm
supportssupply
during
periods
of
low
hydrology,
as
is
the
case
on
a
largescale
with
wind
and
hydropower
complementarity
in
Latin
AmericancountrieslikeBrazil,UruguayandCostaRica.DiversificationofSupplyThe
generation
mix
in
most
African
countries
is
dominated
by
hy-dropower
plants,
which
can
leave
countries
vulnerable
to
periods
ofdrought
and
to
aging
hydropower
infrastructure.
Some
large
econ-omies
that
are
reliant
on
thermal
plants
(coal
and
natural
gas)
forthe
bulk
of
their
generation
are
opting
to
increase
renewable
energycapacity
to
mitigate
the
economic
risks
of
depending
on
imports
offossil
fuels,
particularly
given
the
recent
price
volatility
of
internation-al
gas
markets.
Greater
diversification
of
supply
and
lower
depen-dency
on
imported
fossil
fuels
increases
the
security
and
resilience
ofacountry’senergymix.CaptiveSupplytoIndustryIncreasingly,
industries
are
choosing
to
install
their
own
wind
farmsEgypt,
whose
grid
has
historically
been
reliant
on
natural
gas,
is
to
supply
their
power
needs
directly.This
is
motivated
by
cost,
and
acurrentlyinstallinglargescalewindandsolarandtargetstoreach
needtoreducethecarbonfootprintoftheirupplychain.3This
data
is
specific
to
the
projects
whose
employment
numbers
were
identified
in
this
baseline
study.
The
total
number
for
Africa
is
higher
considering
the
totalinstalledwindcapacityis8,985MW.8
|GWECStatusofWindinAfricaReport2023This
trend
has
been
the
case
in
Morocco’s
cement
and
fertiliser
in-dustries
(e.g.,
OCP,
LafargeHolcim,
Italcementi,
Cimat,
Asment
deTemara,
etc.),
Rio
Tinto
minerals
in
Madagascar,
and
in
South
Afri-ca,
where
Seriti
Green
is
developing
a
500MW
wind
farm
to
powercoalmining,withmanyotherexamplesin
othermarkets.Thistrendof
wind
farms
being
installed
at
a
captive
site
of
a
commercial
or
in-dustrial
entity
will
continue
as
companies
look
to
secure
clean
energysupply,
reduce
costs
and
ecarbonise
their
footprints.
Beyond
thesesocioeconomicandsystembenefits,therearealsostrongdriversforthecontinuedexpansionofwindenergyacrossthecontinent:GreenHydrogenGreen
hydrogen
has
been
identified
as
having
the
potential
to
decar-bonise
hard-to-abate
sectors
of
the
economy
that
rely
on
hydrogen.Theseincludeammoniaproduction,methanolproductionandDirectReductionofIron(DRI)inthesteelindustry.Green
hydrogen
could
substitute
fossil
fuel-based
feedstocks
in
en-ergy
end-use
sectors
where
electrification
of
industrial
process
is
notpossible
or
uneconomical.
These
include
processes
which
requireintense
heat,
or
transport
segments
such
as
long-distance
shippingandaviation,whereenergyneedstobestored,transportedandde-ployed
efficiently.
There
is
a
huge
demand
by
companies
to
securesupplies
of
green
hydrogen
by
signing
strategic
partnerships.
TheInternational
Energy
Agency
(IEA)
estimated
that
by
2030,
globally,9-14
Mt
of
hydrogen
would
be
produced
via
electrolysis
with
acorrespondingelectrolysercapacityof134to240GW.Tomorrow’s
DriversRepoweringofWindFarmsAstheinstalledwindfarmsinAfricaapproachtheendoftheircom-mercial
and
technical
lives,
and
wind
turbine
technology
continuesto
improve,
there
will
be
a
need
to
repower
sites
with
strong
windtechnical
resource.
From
the
commissioning
dates
of
the
identifiedprojects
there
will
be
a
peak
of
repowering
activity
in
Africa
be-tween
2034
and
2038,
as
many
power
plants
reach
the
end
ofcontractual
life.
The
majority
of
the
turbines
installed
in
Africa
before2019
were
sub-2MW
turbines.
Today
single
onshore
turbines
of
6MWareavailable.To
achieve
a
truly
green
hydrogen
sector
which
is
in
line
with
de-carbonisation
and
energy
security
goals,
a
ramp
up
of
renewableenergy
installed
capacity
will
be
required.
Wind
is
well
placed
totakealeadingroleowingtotherelativeabundanceofunderutilisedhigh-quality
sites
such
as
in
Egypt
and
Kenya,
that
offer
higher
ca-pacity
factors
compared
to
solar.Wind
provides
a
good
opportunityto
achieve
firmer
capacity
as
will
be
required
for
green
hydrogenproduction.Repowering
offers
an
efficient
pathway
for
countries
to
maximiseproductivity
and
socioeconomic
benefits
from
sites
already
designat-ed
for
wind
power
production.
Replacing
older
models
with
newerturbines
that
have
larger
power
ratings,
greater
resilience
to
environ-mental
elements
and
material
upgrades
can
unlock
a
higher
energyyield,
increase
resilience
to
environmental
elements,
lower
downtimeperiods
and
operational
expenditures,
and
improve
cost
reductionfor
offtakers,
consumers
and
asset
owners
and
operators.
This
mayalso
be
achieved
on
a
fast-track
basis,
given
the
sites
have
alreadybeenpermittedforwindfarmuse.E-mobilityThe
e-mobility
market
in
Africa
is
diverse,
with
wide-ranging
levels
ofadvancement
related
to
the
overall
development
of
a
specific
econ-omy.
For
mass
transportation,
electric
trains
and
buses
are
beingadopted
in
Africa
to
wean
countries
from
fossil
fuel
imports
and
re-duce
emissions
from
the
transportation
system.
Electric
buses
are
alsobeing
adopted
across
the
continent,
especially
in
countries
reliant
onimportoffossilfuels.Atanotherlevelarethetwo-wheelerandthreewheelers
that
are
predominant
in
much
of
Africa
and
serveas
mainformsoftransportationinruralareasofAfrica.Theelectrificationofthese
is
already
underway
in
Ethiopia,
Togo,
Kenya,
Rwanda,
Ugan-This
is
already
the
case
for
the
Kouda
Al
Baida
wind
farm
in
Moroc-co
which
is
to
undergo
repowering
from
a
54MW
wind
farm
to
a120MW
wind
farm
and
later
to
a
200MW
wind
farm.
The
La
Per-rièrewindfarm
inReunionwasalsorepoweredfroma37-turbine
da,Burundi,Madagascar,SierraLeone,andTanzania.wind
farm
of
10MW
to
a
9-turbine
wind
farm
of
18MW
in
2022byTotalEnergies.Thisnewdemandfrome-mobilityandtheneedtoensurelow-car-bon
transportation
is
enhanced
will
send
a
demand
signal
for
morewind
power
to
be
developed
in
the
continent.
Wind
resource
match-es
well
with
the
nighttime
charging
of
e-vehicles
due
to
the
higherresource
availability
at
night
often
at
times
of
low
demand
on
thegrid.
This
alignment
puts
wind
at
a
better
position
among
renewablestosupply4ComitéMaghrébindel’ElectricitéGWECStatusofWindinAfricaReport2023|9charging
power
for
the
transport
sector.
The
development
of
regionalpower
trading
markets,
with
appropriate
structures
and
rules,
acrossthesepowerpoolswillincreasetheattractivenessofdomesticsupplyof
wind
and
other
renewable
energy,
as
offtakers
will
increasinglyseekzero-carbonformsofenergy.Countrieswithasurplusofrenewablegenerationattimeswherethewind
and
sun
are
strong,
or
even
having
employed
short-duration
orlong-durationenergystoragetechnologytocapturerenewableelec-tricity,
can
generate
economic
gains
by
selling
excess
power
acrossborders.
This
would
also
reduce
the
risk
of
curtailmentof
renewablepower
and
improve
the
overall
business
case
for
investment
in
re-newablesinthecountry.RegionalPowerMarketsThe
integration
of
markets
at
a
regional
level
will
allow
for
devel-opment
of
wind
plants
in
high
potential
countries
for
trade
withhigh
demand
countries
allowing
better
integrated
use
of
resourcesavailable
in
the
region.
The
African
market
has
five
active
powerpools
COMELEC
,
WAPP,
CAPP,
EAPP,
and
SAPP
with
some
more6active
than
others.
There
are
also
overlaps
with
some
countries
beingmembersofmorethanonepool.6ComitéMaghrébindel’Electricité10
|GWECStatusofWindinAfricaReport2023Chapter1INTRODUCTIONTheGlobalWindEnergyCouncil(GWEC)initsefforts
topromotetheadoptionofmorewindenergyintheAfricancontinent,undertook
todevelop
this
report
on
”The
Status
of
Wind
in
Africa”.
The
report
maps
out
the
continent’s
current
installed
wind
power
plants
of
capacitygreater
than
1MW.
Wind
power
plants
have
been
installed
in
new
markets
in
the
continent
such
as
Senegal
and
Djibouti
away
from
thetraditionalleadingcountry
marketsofEgypt,Morocco,andSouthAfrica.Thesetraditionallargewindmarketshavealsoseenanuptakeofhighercapacitywindfarmsandlargerinstalledturbines.ThereportdocumentsthepotentialtechnicalcapacityforwindasreportedbytheInternationalRenewableEnergyAgency(IRENA)andtheWorld
Bank
Group’s
International
Finance
Corporation
(IFC).
The
regional
distribution
of
wind
energy’s
technical
potential
is
analysed
torevealtheregionaltrendsinpotential.Projectsthathavebeenannouncedarethenidentifiedandmapped.A
total
of
223
wind
projects
that
have
been
installed
or
are
planned
were
catalogued
bringing
the
total
considered
capacity
to
67GW
ofprojects.Theinstalledandoperationalprojectsidentifiedrepresent9GWintotalcapacity.The
benefits
and
drivers
of
installation
of
wind
are
also
looked
at
and
analysed
in
order
to
better
inform
the
reader
of
the
likely
trends
toexpectinthecomingyearswithrespecttogrowthinwindenergyinstallationsinAfrica.The
report
aims
to
give
an
understanding
of
the
current
state
of
project
activity
in
Africa’sutility-scale
wind
energy
market
and
point
to
whatthe
future
looks
like
given
the
announced
pipeline
of
projects
and
various
drivers
of
new
wind
capacity.The
continent
is
set
to
see
continuedgrowth
in
both
population
and
economic
activity.
Wind
energy
is
in
a
strong
position
to
help
power
the
future
growth
of
the
African
conti-nent.GWECStatusofWindinAfricaReport2023|
11Chapter2WINDFARMS
INAFRICAThe
wind
industry
in
Africa
started
off
in
Egypt
in
the
late
1980s
andearly
1990s
with
an
initial
series
of
small
utility-scale
wind
farmsgenerally
financed
by
soft
loans
from
European
donor
countries.There
were
also
a
number
of
single
turbine
demonstration
plantsmeant
to
be
“proof
of
concept”
for
larger
wind
farms
that
started
inthe
late
1990s
and
early
2000s.
These
were
implemented
in
CapeVerde,
South
Africa,
Kenya
(KenGen’s
Ngong
Hills),
and
Moroccoamongst
others.
Larger
utility-scale
plants
then
started
to
come
on-line
beginning
around
2000-2001.
Notab
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