wellbeing engineering of rural smart gridsgreatidea.uprm.edu/iawsd2015_mcastro.pdf ·...
TRANSCRIPT
Wellbeing Engineering of Rural Smart Grids
Marcel J. Castro-Sitiriche
University of Puerto Rico at Mayagüez
Nelson Mandela African Institution of Science and Technology
1st International Workshop on System Dynamics, Big Data and Cloud Computing
IAWSD 2015
“Transformation for Sustainable Development”
Kenya School of Monetary Studies, Nairobi, Kenya
Tuesday, January 13, 2015
Universidad de Puerto RicoRecinto Universitario de Mayagüez
Colegio de Ingeniería
Sustainable Livelihoods
“… reducing poverty by empowering the poor to build on their opportunities.”
Clare Short, Foreword in
Diana Carney, Sustainable Livelihood Approaches:
Progress and Possibilities for Change
Overview
•Responsible Wellbeing and Energy Poverty
• Technology Innovation: Smart DC rural microgids• Smart Energy Meter• Data Analytics• Power Converters
•Agent Based Modeling
•Return-risk perception
Responsible Wellbeing and Threshold Hypothesis: Wellbeing vs Consumption
(a)
Consumption
We
llbe
ing
Region 1
PovertyResponsible Wellbeing
Affluence(excess)
Region 2 Region 3
(b)
Chambers, R. (1997), Editorial: Responsible well-being – a personal agenda for development. World Development 25: 1743–1754.
Point (a): minimum necessary
Max-Neef, M. (1995), Economic growth and quality of life: a threshold hypothesis, Ecological Economics, 15, 115–118.
AppropriateTechnology Responsible
Wellbeing
Point (b): threshold hypothesis
Responsible Wellbeing and Threshold Hypothesis: Wellbeing vs Consumption
(a)
Consumption
We
llbe
ing
Region 1
PovertyResponsible Wellbeing
Affluence(excess)
Region 2 Region 3
(b)
Chambers, R. (1997), Editorial: Responsible well-being – a personal agenda for development. World Development 25: 1743–1754.
Point (a): minimum necessary
Max-Neef, M. (1995), Economic growth and quality of life: a threshold hypothesis, Ecological Economics, 15, 115–118.
AppropriateTechnology Responsible
Wellbeing
Wellbeing Engineering
Point (b): threshold hypothesis
Quality of Life Enabled by Rural Electrification: Wellbeing vs Consumption
(a)Annual kWh per capita
Hap
py
Life
Yea
rs (
HLY
)
Region 1
PovertyResponsible Wellbeing
Affluence(excess)
Region 2 Region 3
(b)
Point (a): minimum necessary levelPoint (b): threshold hypothesis level
(i) (ii)
Point (i): absolute minimum as basic human rightPoint (ii): target level
60 kWh400 kWh
2,000 kWh
?
39.1 HLY
62.6 HLY
50.8 HLY
79.3 LE7.3 LS
66.7 LE4.6 LS
71.2 LE6.3 LS
Happy Life Years – HLYLife Expectancy – LE Life Satisfaction – LS
HLY = LE x LS/10
Energy Development Index Countries
49.245.4
43.5
38.537.4
34.6
30.9
28.2
20.0
25.0
30.0
35.0
40.0
45.0
50.0
55.0
60.0
65.0
0 500 1000 1500 2000 2500 3000 3500 4000 4500
Hap
py
Life
Ye
ars
Average Yearly Per-Capita Electric Energy Consumption (kWh)
Happy Life Years vs Per-Capital Electricity Consumption
79.3 LE7.3 LS
66.7 LE4.6 LS
71.2 LE6.3 LS
Level 2
AppropriateTechnology
Level 1 Level 3
60 kWh
400 kWh2,000 kWh
Level 1: basic human right - Madagascar
Level 2: minimum necessary - Guatemala
Level 3: target level - Costa Rica
Happy Life Years – HLYLife Expectancy – LE Life Satisfaction – LS
HLY = LE x LS/10
Poverty Responsible Wellbeing
LE LS HLY energy
Kenya 57.1 4.3 31.7 136 kWh
Tanzania 58.2 3.2 27.7 80 kWh
Energy Threshold Hypothesis: Switzerland
0.0
10.0
20.0
30.0
40.0
50.0
60.0
70.0
0 5000 10000 15000 20000 25000
Hap
py
Life
Ye
ars
Per Capita Electric Energy Consumption in a year (kWh)
Happy Life Years vs PerCapital Electricity Consumption
(b)
Point (b): threshold hypothesis - Switzerland
7,372 kWh
82.3 LE7.5 LS
66.5 HLY
• Switzerland had the highest Happy Life Years in the 2012 Happy Planet Index Report (of 151 countries)
• Life Expectancy: 82.3 years• Life Satisfaction: 7.5 out of 10 in the Cantrill Ladder• However, Switzerland was not the highest electric
energy consumer by far.
Energy Poverty
Africa Energy Outlook, 2014
Millions without Electricity
• 35 in Kenya• 36 in Tanzania• 31 in Uganda• 70 in Ethiopia• 10 in Rwanda• 9 in Burundi• 9 in Somalia
Country Electrification rate (%)Population without electricity
(millions)
Burundi 4.0 9
Djibuti 50 0.9
Eritrea 32.0 4
Ethiopia 17.0 70
Kenya 16.1 35
Rwanda 1.3 10
Somalia 10 9
Tanzania 13.9 36
Uganda 9.0 31
Eastern Africa 14 204
Sub-Saharan
Africa30.5 585.2
Africa 41.8 586.8Africa Energy Outlook, 2014; World Energy Outlook, 2012
Technology Innovation: Smart DC rural microgidsSmall Business Model:
• Solar Home Systems
• Autonomous DC Microgrid
• Smart Clusters of DC Microgrids
Energy Kiosks
Solar Home Systems
Autonomous DC Microgrid
Smart Clusters of DC Microgrids
Technology Product: Smart Solar Home System
DC-DC Bidirectional Power Converter
380 Vdc
12 Vdc
Smart Energy Box
DC Loads
Smart Energy Box:Smart MeterCharge ControllerBatteryRemote Comm.
Connection to DC Microgrid
Smart Rural DC Microgrid
Smart Energy Box
DC Loads
Smart Energy Box
DC Loads
Smart Energy Box
DC Loads
Smart Energy Box
DC Loads
Smart Energy Box
DC Loads
Smart Energy Box
DC Loads
Smart Energy Box
DC Loads
Smart Energy Box
DC Loads
Smart Energy Box
DC Loads
Smart Energy Box
DC Loads
Smart Energy Box
DC LoadsSmart Energy Box
DC Loads
Smart Energy Box
DC Loads
Smart Energy Box
DC Loads
Smart Energy Box
DC Loads
Smart Energy Box
DC Loads
Smart Energy Box
DC Loads
Smart Energy Box
DC Loads
Smart Energy Box
DC Loads
Smart Energy Box
DC Loads
Smart Energy Box
DC Loads
DC-DC Bidirectional Power Converter
380 Vdc
12 Vdc
Smart Energy Box
DC Loads
Connection to DC Microgrid
Energy Scale
Energy Kiosks
Solar Home Systems
Smart Rural DC Microgrid
Network of Microgrids
400 kWh
60 kWh
Yearly Average Per C
apita
Electric Energy C
on
sum
ptio
n
G A P
Rural Electricity Energy Ladder
30W
80W
200W
Solar Home Systems
200W
1kW
10kW
10kW
25kW
100kW
Micro-grid
70kW
300kW
Mini-grid
Grid Tied
Remote Rural Smart Grid
Solar Home Systems
Data Analytics for Rural ElectrificationEl
ectr
ic P
ow
er • Renewable Energy Resource
• Power Demand
• Energy Storage
Soci
o-E
con
om
ic • Return on Investment
• Risk Assessment
• Social Impact
• Community Empowerment
Geo
grap
hic • GSM Modem
• Population Density
• Renewable Power Distribution
• Distance to Grid En
viro
nm
enta
l • Local Impact
• Household Health
• Community Resilience
Rural Electrification Pathways to WellbeingMarcel J. Castro-Sitiriche1,3, Jonathan Ozik2
University of Puerto Rico at Mayagüez1, Argonne National Laboratory2
Nelson Mandela African Institution of Science and Technology3
Castro-Sitiriche, Marcel J., Jonathan Ozik; “Rural Electrification Pathways to Wellbeing”, Proceedings of the 6th International Conference of Appropriate Technology: Knowledge and Technology Transfer Session, Nairobi, Kenya, pages 54-63, November 2014.
Sponsored by the Department of Energy and the National Science FoundationDecision and Information Science Division, Argonne National Laboratory
Complex Systems Approach
Access to Electric Energy
Drivers of Wellbeing
Millennium Development
GoalsQuality of Life
Layard, R., A. Clark, and C. Senik. "The causes of happiness and misery“, chapter on World Happiness Report, Helliwell, John, Richard Layard, and Jeffrey Sachs (2012). http://www.earth.columbia.edu/sitefiles/file/Sachs%20Writing/2012/World%20Happiness%20Report.pdf
Poor People’s Energy Outlook, Practical Action, 2010http://practicalaction.org/poor-peoples-energy-outlook-2010
Networks of Project Impacts
Rural Electrification Key Areas (4)
Drivers of Wellbeing (6)
Millennium Development Goals (6)
AutonomyLife
SatisfactionEmployment Competence
Sense of Purpose
ResilienceSocial
Relationships
Rural Electrification for Earning a Living
Energy for Earning a Living
Access to energy and increased incomes are strongly linked.
Incomes must be lifted to eradicate Poverty and Hunger
(MDG1)
Decrease the need for child manual labor
Children must be free to attend school for universal primary
education (MDG2)
Decrease time needed for women in manual tasks such as wood
collection
Income generation potential for women to promote gender
equality and empower women (MDG3)
Source: Practical Action (2010). Poor People’s Energy Outlook 2010, Rugby: Practical Action.
Networks of Project Impacts
1) Earning for a Living
Income
MDG1
Sense of Purpose
Work
MDG2
Employment Competence
2) Lightning
Social Capital
MDG3
Autonomy
3) Information & Communication Technologies, and 4) Cooling
Values
MDG4
Social Relationships
Environment
MDG5
Resilience
Health (mental and
physical)
MDG6
Life Satisfaction
Source: Practical Action (2010). Poor People’s Energy Outlook 2010, Rugby: Practical Action.
Networks of Project Impacts
1) Earning for a Living
Income
MDG1
Sense of Purpose
Work
MDG2
Employment Competence
2) Lightning
Social Capital
MDG3
Autonomy
3) Information & Communication Technologies, and 4) Cooling
Values
MDG4
Social Relationships
Education
MDG5
Resilience
Health (mental
and physical)
MDG6
Life Satisfaction
Source: Practical Action (2010). Poor People’s Energy Outlook 2010, Rugby: Practical Action.
Networks of Project Impacts
1) Earning for a Living
Income
MDG1
Sense of Purpose
Work
MDG2
Employment Competence
2) Lightning
Social Capital
MDG3
Autonomy
3) Information & Communication Technologies, and 4) Cooling
Values
MDG4
Social Relationships
Environment
MDG5
Resilience
Health (mental and
physical)
MDG6
Life Satisfaction
3) Information & Communication Technologies
Source: Practical Action (2010). Poor People’s Energy Outlook 2010, Rugby: Practical Action.
Networks of Project Impacts
1) Earning for a Living
Income
MDG1
Sense of Purpose
Work
MDG2
Employment Competence
2) Lightning
Social Capital
MDG3
Autonomy
3) Information & Communication Technologies, and 4) Cooling
Values
MDG4
Social Relationships
Environment
MDG5
Resilience
Health (mental and
physical)
MDG6
Life Satisfaction
Cooling
Source: Practical Action (2010). Poor People’s Energy Outlook 2010, Rugby: Practical Action.
Networks of Project Impacts
Source: Layard, R., A. Clark, and C. Senik, "The causes of happiness and misery”, chapter on World happiness report, Helliwell, John, Richard Layard, and Jeffrey Sachs (2012). weblink
Set of Variables to define the conceptual model
A. Rural Electrification
Key Areas
B. Drivers of
Wellbeing
C. Millennium
Development Goals
D. Wellbeing
Indicators
A1. Earning for a Living B1. Income C1. Eradicate extreme
poverty and hunger
D1. Autonomy
A2. Lighting B2. Work C2. Achieve universal
primary education
D2. Life Satisfaction
A3. Information &
Communication
Technologies
B3. Social Capital C3. Promote gender
equality and empower
women
D3. Employment and
Competence
A4. Cooling B4. Values C4. Reduce child
mortality
D4. Sense of Purpose
B5. Education C5. Improve maternal
health
D5. Resilience
B6. Health (mental and
physical)
C6. Combat HIV/AIDS,
malaria and other
diseases
D6. Social Relationships
Next Step: Agent Based Modeling
Case Study of Duchity, Haiti: Lack of Data to Build
• Develop Data from ongoing research project at Duchity, Haiti
• Develop Data from research at Ngarenanyuki and Leguruki, Tanzania
• Develop Data from Solar Home Systems Startup Company
• Use Data from other existing projects:• Energy for Development
• Wellbeing and Poverty Pathways
Links: Wellbeing and Development
Wellbeing and Poverty PathwaysUniversity of Bath (2014)
Namibia and India
Energy for Development
Southampton UniversityKitoyoni Project, Kenya.
Remote Rural Community Without Electricity Access
Complex Systems
Modeling
Responsible Wellbeing
Livelihood Security
SustainabilityEquity
Capabilities Approach
Environmental
Household Health
Local Impact
Electric Power Data
Renewable Energy Sources
Power Demand
Geographic Information
Distance to GridPopulation
Density
Level 3: Basic Human Right
Distance to Grid Population Density
Level 2: Minimum Necessary
Renewable Energy Sources
Power Demand
Level 1: Target Level
Household Health Local Impact
Layers of DataLevels of Electric
Energy Consumption
Adapted from: Chambers, Robert. 1997 “Editorial: Responsible Wellbeing – A Personal Agenda for Development”,
World Development 25(11): 1743-1754.
Model of Renewable Energy Policy and Investment
Adapted from: Wüstenhagen, Rolf, and Emanuela Menichetti. "Strategic choices for renewable energy
investment: Conceptual framework and opportunities for further research." Energy Policy 40 (2012): 1-10.
Energy PolicyComplex Systems
Modeling
Return-risk Perception
Investment
Modified Model of Renewable Energy Policy and Investment
Extended Model
Energy PolicyStakeholder
Engagement: ABMS
Return-risk Perception
Investment
Rural Electrification
Projects
Pathways of Wellbeing
Social Impact Evaluation:
ABMS
Quality of Life in Rural
Communities
Motivation for Complex Systems Analysis
Hypotheses to test:
• The Return-risk Perception for small remote rural energy investment is worse than the actual return-risk relationship.
• The impact of electrification projects on human wellbeing depends on many variables, most of them social, and each community has an optimum level of electricity consumption that will fall under the suggested defined levels.
GRACIAS - [email protected] of Puerto Rico in MayagüezElectrical and Computer Engineering
[email protected] Mandela African Institution of Science and Technology
http://greatidea.uprm.edu
Sponsored by the: Fulbright Scholarship 2014-2015, SabbaticalGREAT-IDEA and CRWS NSF Project Grants #103302 and #1449489
Universidad de Puerto RicoRecinto Universitario de Mayagüez
Colegio de Ingeniería