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Regional sustainable energy management
Prof. Dr. László DinyaKÁROLY RÓBERT COLLEGE –
GYÖNGYÖS22.03.2012
Agenda
1. Regional challenges and the KRC
2. Complexity of challenges
3. The „bottom-up” approach
4. Experiences
1. „Károly Róbert College” (KRC)„KRC” = Knowledge and Research Company
Gyöngyös
„As a knowledge center of the Northern Hungarian EU-region the KRC provides its knowledge services focusing on the green
economy.”
One of our main tasks: how to implement a sustainable region?
The challenge:intensity of multiple
risks for EU-regions until 2020
Indicators:1.Globalisation challenge2. Demography trends3. Climate change 4. Energy vulnerability
Cumulated number of challenges
Our logical framework
ECOLOGY
SOCIETY
ECONOMY
SUSTAINABLE DEVELOPMENT
TOP-10 CHALLENGES
SUSTAINABLE MICRO-REGIONS
SUSTAINABLE ENERGY MANAGEMENT
GLOBAL COMPLEXITY
LOCAL COMPLEXITY
No. 1. = ENERGY
GLO
BA
LLO
CA
L
BOTTOM-UP
LEVE
LLE
VEL
2. Challenges: horizontal and vertical complexities
The global context: our top 10 problems for the next 50 years
IT IS NOT A SIMPLE
CHECK-LIST = IT IS A
RANKINGAND A
COMPLEX SYSTEM!
Source: R. Smalley, 2004
The „horizontal” complexity: „TOP -10” challenges of sustainable development!
1. Energy
2. Water3. Food 4. Environment
5. Poverty6. Violence, war7. Health8. Education9. Democracy10. Demography
Complexity of challenges:(Dinya L., 2007)
Energy
PovertyEnvironment
WaterFood
ViolenceHealth
DemographyDemocracy
Education
R. Smalley, 2004.
Nº-1: the „terawatt challenge”(after R. Smalley, 2011)
• Today : 7 billion people = 14,0 TW energy demand (1 TW = 1000 GW = 1000 Matra Power Plant)
– 1,5 billion people = in developed countries– 40% has no access to energy
• 2050: 10 billion people consuming energy at the level of developed today = 60 TW demand! = If we’d start every day with one new 1000 MW
power plant (based on RES!) – we’d have 10 TWsurplus in 27 years! (+ 46 TW = until 2135)
E2000 = 10 ÷ 1 (!)
EROI1900 = 100 ÷ 1 (!)
E? = 3 ÷ 1 (!)
Emerging importance of the EROI !
That’s why energy has the 1-st place in ranking
of challenges!
In the lack of complex answers:we are all
travelers of the Titanic!
Statistics of the Titanic:Ratio of survivors:
1-st class = 65%3-rd class = 25%!
…but everything is discussed:
• Recent position of:– our „ship”– the „iceberg” (= the accident)
• The dynamics of our „ship”:– its speed – and its direction
• The size of the „iceberg”• The robustness of our „ship”• And the consequences of a possible „accident”
…many pros and cons – mixed information and interests!
Who is right?? Everybody!!! But just
from their special point of view…
Different points of view!
Ministry of Economy: the „flagship” of our energy system!
Greenpeace:the biggest
threat for the environment!
Citizens in that region: our biggest employer!
RES-lobby: they take the money from us!
You’ll get a totally different meaning putting the things into
different context…
„TO BE, OR NOT TO BE?”(Shakespeare: Hamlet, III. scene)
„…that is the question!” (?)
Sustainable development
Green economy
Eco-energetic projects
„Satisfying present needs without limiting the needs
of future generations "
„Energy management based on principles of
sustainability”
„RES-based energy production”
Sustainable energy management
„Production and services in a
sustainable way”
„Vertical”complexity
A VILÁG ENERGIAFOGYASZTÁSA 2060-IG
0
200
400
600
800
1000
1200
1400
1600
1900 1910 1920 1930 1940 1950 1960 1970 1980 1990 2000 2010 2020 2030 2040 2050 2060
Year
Ener
gy c
onsu
mpt
ion
(Exa
joul
e/ye
ar)
egyéb
ár-apály energia
napenergiaúj biomassza
szélenergia
vízenergia
hagyományos biomassza
atomenergia
földgázolaj
szén
Energy consumption of the world – the long-term global „energy-mix”
other
tidal
solar
new biomass
wind
water
traditional biomass
nuclear
gas
oil
coal
http://www.gre-ag.com/en_solarenergie.php
RES~25%
RES~70%
Geot
herm
Wat
er
Solar
Wind
Infrastr
u cture
Logistical mix
Storag e
Smart grid
Consuming
Transpo rt
ProductionSo
cial Legal
Econ
omic
Economy
Societ y
Ecolo
g y
Renewable sources
Foss
ileso
urce
s
„Rules of the game”
Integrated interests
Energy system
Ener
gy e
ffici
ency
GasNuclear
Oil
Coal
Bio
mas
sza
Bio
mas
s
Complex system of sustainable energy management(L. Dinya, 2007)
„Achievable among structural barriers(food, feed, etc…"
Energetic potentialsTheoretic potential
Conversion potential
Technical potential
Economic potential
„Physically available amount of
energy"„Achievable by our present
technologies ”
„Profitably useable potential
of energy”
„Achievable potential taking account social –ecological criteria too”
Sustainable potential
Theoretic potential
Sustainable RES-potential of Hungary ~ 16% of the theoretical one (today!)
Innovation „bottle-neck”? The „soft” innovations
PRODUCT INNOVATIONS
TECHNOLOGICAL INNOVATIONS
MARKET INNOVATIONS!
SYTEM INNOVATIONS!
Föld
hVízN
ap
Szél
Infra
struk
túra
Logisztikai mix
TárolásOsztott h
álózat
Fogyasztás
Szállítás
Termelés
Társ
adal
mi
Jogi
Gaz
dasá
gi
Primer termel k
Szekunder
termel k
Fogyaszt
ók
Megújuló források
Kim
erü
forrá
sok
„Játékszabályok”
Integrált érdekeltek
Energiarendszer
Ener
giat
akar
ékos
ság
Sustainable energy management
FöldgázNukleáris
Olaj
Szén
Bio
mas
sza
Bio
mas
sza
Szaporítóanyag biztosítás
Faaprítékgyártás
Értékesítés, piacbiztosítás
Folyamatos innovációk
Tudásszolgál-tatások
Források mobilizálása
Integrált energia-ültetvények
Bioenergy business model
After J. Schumpeter Dinya L., 2007
SUCCESS!Sustainable
micro-regions!
3. The „bottom-up” approach: sustainable energy
management inside the sustainable micro-region
Harmonization of different strategic levels
EU-level: f.e. European Super Smart Grid 2050!
Nation-level: f.e. Energy Vision of Hungary 2030!
Local level: sustainable micro-regions 2020?
The increasing
energy dependency
of the EU
50%
70%
The European „Super Smart Grid” – SSG - 2050
Linking a 100% renewable power sector with a smart grid in Europe and North Africa!
Energy vision of EU
Official energy vision of Hungary: 2030
Stimulation of economy
Rural development
Education, employment
Ecological criteria
Social criteria
Sup
ply
secu
rity
Com
petit
iven
ess
Sus
tain
abili
ty
Rules
Emerging new priorities…1. Implementation of the „2000 watt” society!• Reasons:
– The average level of the global energetic capacity today (~14 TW/~7 billion people = 2000 watt/capita)
– This would be the „fair share” for poor countries and for rich ones too…
– More and more developed countries have selected this vision already!
• Hungary is the society of „3780 watt” today (= 1192 PJ/year energy consumption by 10 million people) having min. 40% saving potential in energy efficiency: energy production = 10% + consuming = 30%
Hungary: 3.780 watt/capita
General objective: the 2.000 watt society until 2040?
= 40% decrease?
2. Achieving the maximum possible level of energy independence!
• Reasons:– The cheap fossile energy based economy will
be finished very soon – „sky-rocketing” energy prices are coming up!
– Former global supply chains will be collapsing – local RES-energy based smart grids will be necessary!
• Hungary’s import energy dependency is 61,5%and its energy supply is concentrated into few channels – long term national security is questionable! We have to prepare to the European SSG until 2030.
3. Taking into account sustainability criteria at the energy strategic calculations!
• Reasons:– The GDP has no connections to the real-economy – it
is an artificial and manipulated parameter of the unsustainable growth.
– Better to use the real limits of growth – like natural sources potentials, HDI, NEW, etc…
• Hungary’s main priority could be the increase of the national EROI by increasing technological efficiency as much as possible!
(EROI = Energy output / energy input - the world average = 10 / 1 and decreasing, Hungary: 12 / 1, the minimum level of social sustainability: 3…5 / 1!)
The possible Hungarian way until 2040
Total primery energy supply
Home primary energy production
Home RES productionHome fossile energy
productionHome clear fossile
energy productionHome non-clear fossile
energy productionImported energyCumulated energy saving
by conversionCumulated energy saving
by consumption
The "2000 Watt" society = 630 PJ/year
Home production based energy-mix = 300 + 330 PJ
Max. utilized home RES-potential = 300 PJ/year
Min. possible home fossile production = 330 PJ/year
Home fossile production based on clear technologies = 330 PJ/year
Elimination of non-clear home fossile production
Achieving energy independency = 0%
Achieving conversion efficiency of 80% (today: 70%)
Achieving consumption efficiency of 73% (today: 44%)
Energy strategy of Hungary 2010-2040
-400-200
0200400600800
100012001400
2010 2020 2030 2040
Time
PJ/y
ear
Indicators of critical importance
Energy strategy of Hungary 2010-2040
-400-200
0200400600800
100012001400
2010 2020 2030 2040Time
PJ/y
ear
Total primery energy supply
Home primery energy production
Home RES production
Home fossile energy production
Home clear fossile energyproductionHome non-clear fossile energyproductionImported energy
Cumulated energy saving byconversionCumulated energy saving byconsumption
Main pillars of sustainability:• community= human/culture/networks/demographic
• economy= production/services/markets/networks
• infrastructure= ENERGY/water/transport/information
• public services= education/social/safety/government
• environment= sources/emissions/processes/ecology
„Sustainable micro-region”pilot-project in Northern
Hungary
Containing appr. 20 projects – including the
SEM-strategy!
Harmonization with regional sustainability
1. Sustainable community
4. Sustainable public services
2. Sustainable local economy
3. Sustainable infrastructure
5. Sustainable environment
SUSTAIN-ABLE MICRO-
REGION
Human capital „Culture” Demography NetworksEnergy supply
Water-sewage
Transport
Information
„Sources”
„Recipients” Processes
Production
Services
Markets
Employment
Administration
Education
Healthcare
Public order
Landscape
Model of the sustainable micro-region (L. Dinya , 2011)
Regional strategy based on coordinated projects
Already running projects
Future necessary projects
Advantages of coordination:
• synergy among the projects
• involving the running projects
5,86,6
7,37,47,7
8,49,19,29,3
9,910,710,811,1
11,712,3
13,713,8
14,214,7
15,5
1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17
2.1. Production (energy, industry, agrobusiness)3.1. Energy supply
5.1. Natural resources2.4. Local employment
1.1. Human capital3.2. Water and sewage system, waste
4.2. Health and social care4.3. Education
2.3. Local markets 2.2. Business services
5.3. Sustainbility processes1.2. Culture, cooperation
3.3. Transport network4.4. Public order
1.3. Demographic pressures5.2. Natural recipients
4.1. Public administration5.4. Landscape
3.4. Information network (Internet, cabel TV)1.4. Civil organisations
IMPORTANCE (1…20)
Ranking the sustainability subtopics (L. Dinya, 2011, n = 33 in two focus-groups)
Sustainability alternatives for a micro-region (L. Dinya, 2011)
1,01,52,02,53,03,54,04,55,0
1.1. H
uman
capit
al
1.2. C
ulture
, coo
perat
ion
1.3. D
emog
raphic
pres
sures
1.4. C
ivil or
ganis
ation
s
2.1. P
roduc
tion (
energ
y, ind
ustry
, agro
busin
ess)
2.2. B
usine
ss se
rvice
s
2.3. L
ocal
markets
2.4. L
ocal
emplo
ymen
t
3.1. E
nergy
supp
ly
3.2. W
ater a
nd se
wage s
ystem
, was
te
3.3. T
ransp
ort ne
twork
3.4. In
formati
on ne
twork
(Inter
net, c
abel
TV)
4.1. P
ublic
admini
strati
on
4.2. H
ealth
and s
ocial
care
4.3. E
duca
tion
4.4. P
ublic
orde
r
5.1. N
atural
reso
urces
5.2. N
atural
recip
ients
5.3. S
ustai
nbilit
y proc
esse
s
5.4. L
ands
cape
SUST
AIN
AB
ILIT
Y LE
VEL
PRESENT SITUATION (2,94) ACTIVE VISION (3,91) PASSIVE VISION (2,32)
The strategic portfolio - as starting points
1,00
1,50
2,00
2,50
3,00
3,50
4,00
4,50
5,00
4 5 6 7 8 9 10 11 12 13 14 15 16 17
IMPORTANT NOT IMPORTANT
WEA
KN
ESS
S
TREN
GTH
„RESERVES”„BIG POTENTIALS”
„SOLVABLES”„CRITICAL FIELDS”
HUMAN CAPITAL
DEMOGRAPHY CIVIL NETWORKS
PRODUCTION
EMPLOYMENT
ENERGY SUPPLY
TRANSPORT
INFORM. INFRA.ADMINISTRATION
RESOURCES
RECIPIENTS
LANDSCAPE
„NEUTRAL”
Sustainable energy management action plan in the sustainability strategy of a given micro-region
SMRSEM
SOCIETY ECONOMY INFRASTR. PUBL.SERVICES ENVIRONMENT
RES
FOSS
ILE
SYST
EMEF
FIC
.R
ULE
SSH
-S
ENHU NG CU DE EM PR SE MA WW TR IN ED HS PA SA SO RE PR LABMWA
GEWI
SOCOOIGANUINSG
STLM
PRTRCOMASOLEECVREN
Forming network of sustainable micro-regions in Hungary
4. Experiences• The methodology is functioning well:
– In the multilateral social communication– In identifying differentiation of micro-regions– In establishing the starting points of local complex
strategies for sustainability– In coordination of actions using the synergy
• Energy supply is always among the most important topics!
• Regional sustainable energy management should be planned in the wider context of local sustainability!
• A knowledge /consulting centre is necessary!
Thank you for the attention!