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The acceleration of economic development and rising standards of living have made energy security a top priority for policy makers worldwide. The issue of securing energy is particularly challenging for Jordan, which suffers from scarcity of natural resources, combined with the regional instability and conflicts. Based on desk research and on experts’ interviews, this study discusses the status quo of the energy sector in Jordan, its main challenges, and future aspirations. It thus contributes to the debate on how Jordan can ensure environmental, economic, social, and political sustainability of its energy sector. Jordan’s energy security has been historically linked to its relations with the neighboring countries and thus vulnerable to external shocks and outside political events. Notwithstanding reform efforts to reduce dependency from imports and some progress in diversifying the energy mix, energy security remains critical: the country imports around 94% of its energy, which represents approximately 10% of GDP. The growing domestic demand, which increases at a yearly rate of 3%, further adds to the pressure to envision strategies towards a more sustainable energy sector. These strategies will need to include investment in renewable energy, the reduction of energy consumption via increasing energy efficiency, and also synergic agreements with other countries. The interviewed experts highlighted the importance of governance for the successful implementation of these strategies. The creation of an enabling environment should go hand in hand with the involvement of all key stakeholders from energy and related sectors, into the development of a future vision of a sustainable energy sector.
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sustainability
Article
Sustainability of the Energy Sector in Jordan:
Challenges and Opportunities
Serena Sandri 1, Hussam Hussein 2, * and Nooh Alshyab 3
1Department of Logistics, German Jordanian University, Amman Madaba Street, Amman 11180, Jordan;
serena.sandri@gju.edu.jo
2Department of Politics and International Relations (DPIR), University of Oxford, Manor Road,
Oxford OX1 3UQ, UK
3Department of Economics, Yarmouk University, Difaa Al Madani Street, Irbid 21163, Jordan;
alshyab.nooh@yu.edu.jo
*Correspondence: hh.hussam.hussein@gmail.com
Received: 9 November 2020; Accepted: 7 December 2020; Published: 14 December 2020


Abstract:
The acceleration of economic development and rising standards of living have made energy
security a top priority for policy makers worldwide. The issue of securing energy is particularly
challenging for Jordan, which suers from scarcity of natural resources, combined with the regional
instability and conflicts. Based on desk research and on experts’ interviews, this study discusses
the status quo of the energy sector in Jordan, its main challenges, and future aspirations. It thus
contributes to the debate on how Jordan can ensure environmental, economic, social, and political
sustainability of its energy sector. Jordan’s energy security has been historically linked to its relations
with the neighboring countries and thus vulnerable to external shocks and outside political events.
Notwithstanding reform eorts to reduce dependency from imports and some progress in diversifying
the energy mix, energy security remains critical: the country imports around 94% of its energy,
which represents approximately 10% of GDP. The growing domestic demand, which increases at
a yearly rate of 3%, further adds to the pressure to envision strategies towards a more sustainable
energy sector. These strategies will need to include investment in renewable energy, the reduction
of energy consumption via increasing energy eciency, and also synergic agreements with other
countries. The interviewed experts highlighted the importance of governance for the successful
implementation of these strategies. The creation of an enabling environment should go hand in hand
with the involvement of all key stakeholders from energy and related sectors, into the development
of a future vision of a sustainable energy sector.
Keywords: energy; Jordan; electricity; energy policy; experts’ interviews
1. Introduction
Securing and ensuring energy is a top priority for governments across the world, as energy is
a key driver of economic development, allowing, for instance, water to be pumped throughout a
country, industry to operate, transportation to work, and other key services to run. The International
Energy Agency (IEA) defines energy security as “the uninterrupted availability of energy sources at an
aordable price” [
1
] (p. 13). The topic has become central to the policy debate since the oil crisis of the
1970s, which revealed the full consequences of “the gradual shift from European coal and American
domestic oil to Western reliance on Middle East oil” [
2
] (p. 112), so that the links between energy,
security, and foreign policy became clear. Since then and until recently, the concept of energy security
was mostly related to securing access to oil and other fossil fuels [
3
]. Technological progress, increased
diversification of the energy markets, climate change awareness, and modified global equilibria call
Sustainability 2020,12, 10465; doi:10.3390/su122410465 www.mdpi.com/journal/sustainability
Sustainability 2020,12, 10465 2 of 25
for a more comprehensive operational definition of energy security. Accordingly, it is now widely
agreed in the literature that energy security “is a complex concept with multi-layered dimensions that
interconnects dierent subject areas” [4] (p. 101).
This study investigates energy security with specific reference to the case of Jordan. The issue
of securing energy is particularly challenging for Jordan, which suers from scarcity of fossil fuel,
combined with the regional instability. Jordan’s energy mix is dominated by fossil fuel [
5
]. Domestic
demand for energy is increasing at a sustained pace [
6
] and the country imports around 94% of its
energy supply [
7
]. This also makes the Jordanian energy sector particularly sensitive to regional
conflicts [
8
]. Recently, regional instability has also been causing intermittency of supply and price
fluctuations (which was the case of liquified gas imports from Egypt, disrupted since 2011) and has
induced the authorities to rethink the approach to energy policy, exploring the feasibility of alternative
sources of energy such as oil shale [
7
] and nuclear energy [
9
], testing new international agreements
(e.g., the construction of an electric transmission line between Jordan and Saudi Arabia), and increasing
the focus on renewable energy [7,10].
As discussed in Section 4, the literature on the energy sector in Jordan highlights the potential of
Jordan as energy producer for non-conventional and renewable energy [
11
13
], but also highlights
that this potential is widely unexploited [
6
,
14
,
15
]. It also discusses international agreements [
5
] and
reflects on their possible implications for the overall political stability of the region [
11
,
16
,
17
]. However,
the debate on the energy sector in Jordan is still lacking a full understanding of the factors and the
conflicts undermining this potential. This study therefore aims at complementing the literature in this
regard, enriching it with an insiders’ view on the energy sector, collected via experts’ interviews.
The present study contributes to the literature on energy security and sustainability in Jordan by
contextualizing the concept of energy security within its environmental, economic, social, and political
sustainability, and by combining the analysis of energy policies and strategies with interviews of key
informants to better understand background stories on how and why certain strategies and decisions
have been taken and adopted. This study aims to answer the following overarching research question:
how can Jordan move towards a sustainable energy security sector? Hereby, the focus will be put on
identifying the main challenges and opportunities towards the transition, but also on understanding
potential conflicts hampering the settlement towards a more sustainable security of energy. The study
aims at providing answers to this question by reviewing previous studies and existing evidence on
the topic, identifying and collecting lessons to achieve sustainable energy security, and testing their
feasibility with key experts, also in light of current strategies and policy options envisioned. Therefore,
starting from a historic perspective on Jordan’s energy security and linking it with political and regional
events, the present study reviews the main trends and challenges of the Jordanian energy market,
discusses current energy policy, and addresses the debate on policy options envisioned.
After this introduction, the conceptual framework and the methodology underpinning the study
are derived and contextualized within related literature. The conceptual framework will be applied to
Jordan’s energy sector status before providing the results of the research in terms of interviews and
findings. Main results and concluding remarks are then presented.
2. Sustainable Energy Security: Theoretical Background and Conceptual Framework
Trying to define security in relation to energy, it emerges that “the concept of energy security
is inherently slippery because it is polysemic in nature, capable of holding multiple dimensions
and taking on dierent specificities depending on the country (or continent), timeframe or energy
source to which it is applied” [
18
] (p. 887). A basic dierentiation of the energy security concept is
based on the temporal perspective. Hereby, long-term energy security has to essentially address the
investments to grant a supply of energy in line with economic and environmental needs. Short-term
energy security is related to promptly reacting to sudden changes in the energy markets. Based on this
dierentiation, Kisel et al. [
19
] developed a framework according to which energy security consists
of four layers: the layer of short-term operational resilience, which characterizes the short-term
Sustainability 2020,12, 10465 3 of 25
dimension of the concept, and the layers of technical vulnerability, economic dependence, and political
aectability, characterizing its long-term dimensions. Even though this framework is useful for a
technical assessment of energy security, it fails to capture some elements needed to characterize wider
social and political implications of energy security. As an example, environmental considerations are
only encompassed within the short-term layer of operational resilience. Other definitions are based
on the interplay between elements of absolute and relative energy security. In this view, absolute
security is linked to availability [
20
] and adequacy of capacity [
21
], whereas relative security points to
aordability and economic sustainability [18].
Screening the literature, it emerges that the concept of sustainability is very often present when it
comes to (long-term) energy security. Sustainability is “the quality of being able to continue over a period
of time” [
22
]. The concept of sustainability has been widely used in environmental sciences, where the
first use was documented in 1713 to discuss the danger of wood overconsumption [
23
]. It then found
applications in economic analysis, notably in Malthus’ theories on population growth, first published
in 1798. The concept has since then become part of the scientific debate both in environmental and
social sciences to denote situations in which the rate of use of a certain resource does not exceed its
regeneration rate [23]. It had a surge in fortune after 1987, when it was linked to development by the
World Commission for Environmental Development’s report (WCED). Sustainable development is
defined as development “that meets the needs of the present without compromising the ability of future
generations to meet their own needs” [
24
] (p. 15). The recognition of ensuring “the access to aordable,
reliable, sustainable, and modern energy for all” among the Sustainable Development Goals [
25
] (p. 18)
reveals how interconnected energy security and sustainable development are. To underline these
interlinkages, some analysts prefer to speak of sustainable energy security [26,27].
Linking energy security to sustainability clearly points to the fact that energy security has an impact
on the overall sustainability of a system: the sustainability of energy security should be assessed in
regard to the supply of energy, to its economic impact (affordability, both in terms of cost and of risk),
to the technological possibilities and associated risks, to environmental impact (trade-offs and mitigation
possibilities), social acceptance, and geopolitical considerations (also in the sense of military security) [
3
].
Energy security is among the top priorities of governments worldwide, with energy often being
the fuel of economic growth and development. Energy policy, which has been defined as ensuring
security, diversity, and sustainability of energy supply at a competitive price [
28
], is at the core of policy
making. Interestingly, definitions of energy policy often borrow from the definition of energy security,
making the boundaries between the two concepts blurred and mixing means with ends [
29
]. From the
principles of energy policy, it is possible to derive conceptual frameworks useful for defining energy
security. This is the case of the principles inspiring the EU energy policy, which are to “ensure the
functioning of the internal energy market and the interconnection of energy networks; Ensure security
of energy supply in the EU; Promote energy eciency and energy saving; Decarbonise the economy
and move towards a low-carbon economy in line with the Paris Agreement; Promote the development
of new and renewable forms of energy to better align and integrate climate change goals into the
new market design; Promote research, innovation and competitiveness” [
30
] (p. 1). Interestingly,
the EU principles drive energy policy towards principles of sustainable energy security rather than
only energy security. The principles can be strongly related to the definition by von Hippel et al. [
3
],
as it integrates supply, geopolitical considerations, economic impact, environmental considerations,
and technological possibilities of energy security.
For the purpose of this study, this paper adopts and builds on the conceptual framework developed
by Von Hippel et al. [
3
]. This framework identifies sustainable energy security as being formed by
the following dimensions: “energy supply; economic; technological; environmental; socio-cultural;
and military-security (geopolitical)” [
3
] (p. 6724). Therefore, when envisioning and planning how to
ensure energy security—in this case for Jordan—the mentioned dimensions need to be considered in
order to ensure the sustainability of the sector.
Sustainability 2020,12, 10465 4 of 25
Table 1reflects on the dimensions of energy security considered in this study, on related features
and assessment criteria that can be used to capture them, and on important considerations that can be
addressed if reflecting on sustainability.
Table 1. Conceptual framework.
Dimensions Considered for
Energy Security
Related Features/Assessment
Criteria Sustainability Considerations
Supply Primary energy supply and growth
Composition of energy supply
Energy consumption and growth (to forecast
future needs)
Availability of domestic sources of energy
Economic
Aordability of energy security
Cost of energy as share of GDP
International energy prices
Price of energy for the final consumers
Outlooks on international energy prices
Cost profile and investment needed towards
envisioned transformation/policy options
Conflicts of interest/vested interests
Technological
Current energy mix
Share of conventional and
non-conventional sources of energy
Adoption degree/diusion of
technologies
Capacity
Availability of infrastructures
Diversification of energy sources
Potential of policy options towards energy
eciency
Capacity building
R&D
Environmental
Environmental impact of current
energy mix as well as of envisioned
transition
Local versus global externalities
Environmental impact of envisioned
transition/policy options
Local versus global externalities of policy options
envisioned
Green transition
Water–energy nexus
Social and cultural
Consumption by use
Per capita consumption and trends
Patterns of consumption
Socio-economic relevance of the
energy debate
Energy eciency
Participatory approaches
Stakeholder consultations
Sensibilization campaigns
Social cost/winners and losers from the transition
Political/Geopolitical Import share and composition
Import by country of origin
Availability of domestic sources of energy
Import diversification and reduction
Exploring potential for regional cooperation
Possible involvement of international institutions
This study discusses potential challenges for Jordan’s energy sector in light of the framework of
Table 1. In doing that, it aims at adding to the existing literature by providing a holistic picture of the
energy sector in Jordan, enriched and complemented by experts’ interviews as specified in the section
on Methodology.
3. Methodology
The methodology used for this study—given the guiding research question and the focus on
national policies and strategies—focused on one core method of data collection: semi-structured
interviews with key figures (experts and key informants), selected among policy makers, representatives
of international organizations, and local academics specialized in energy issues. This method helped in
complementing and building on the desk-based review that was conducted for this study of Jordanian
policies and strategies on energy released by the relevant governmental institutions in Jordan, reports by
international organizations and donors, and academic articles and writings on the topic.
More specifically, the desk-based review was very useful for identifying the relevant strategies
and policies, donors’ and international organizations’ suggestions on how to reform, and academic
analysis and critiques on the sector. In this sense, the semi-structured interviews were used to
complement the review to understand why certain changes happened over time, why dierent policies
and strategies were passed, and the key events that pushed governments to support or abandon plans
(for instance the nuclear one). To implement the interviews, the authors conducted semi-structured
interviews of selected key informants working in Jordan. The selection of participants was based on the
Sustainability 2020,12, 10465 5 of 25
“purposeful sampling” method described by Patton [
31
]. As noted by Patton, this approach is about
“strategically selecting information-rich cases to study, cases that by their nature and substance will
illuminate the inquiry question being investigated.” This means selecting individuals that are especially
knowledgeable about or experienced with a phenomenon of interest [
32
]. In particular, “heterogeneity
sampling” [
33
] was used in selecting key informants from dierent categories representing the sectors
involved in the field of inquiry: academia, government, international agencies, research institutes,
and the private sector.
A total of 11 experts were interviewed. As presented in Table 2, the sample consisted of four
academics, two representatives of international institutions and organizations, and four high-level
former or current governmental ocials from the Jordanian Ministry of Energy and Mineral Resources,
Ministry of Planning and International Cooperation, Ministry of Water and Irrigation, Ministry of
Agriculture, and Water Authority of Jordan. The sample is complemented by an informant with a
managerial position in an electricity company as representative of the private sector.
Table 2. Sample of key informants interviewed.
Number of Interview Type of Organization Reason for Selecting This Interviewee
1 NGO
Leader of an environmental NGO and
former high-level ocial of the Ministry
of Water and Irrigation
2 NGO Energy expert based in Jordan
3 Research institute
Former high-level ocial of the Ministry
of Energy and Mineral Resources and of
the Ministry of Planning and International
Cooperation
4 Higher education institution Academics and expert in energy
5 Higher education institution Academics and expert in energy
6 Independent institution Former high-level ocial of the Ministry
of Energy and Mineral Resources
7 Higher education institution Academics and expert in energy
8 Governmental institution Expert in energy and international
cooperation
9 Governmental institution Expert in energy
10 Private sector Electricity market expert
11 Higher education institution Academic expertise on water–energy
nexus in Jordan
The interviews were conducted from September to November 2020. On average, the length of the
interviews was between 60 and 75 min and was guided following guidelines on qualitative interviewing
by Patton [
31
]. The interview guide was prepared to ensure that the same basic lines of inquiry were
pursued with each person interviewed. Based on the main research question a list of sub-questions
was developed and aimed at exploring dierent angles of the topic. Aspects elicited in the interviews
encompassed an outlook on the energy supply in the sense of future perspectives, potential of the
energy sector in Jordan, and main challenges to it (economic, technological, environment, socio-cultural,
and geopolitical). Governance of the energy sector, existence, feasibility, and potential of regional
cooperation were explored too.
The overarching research question was, “how can Jordan move towards a sustainable energy
security sector?,” while the sub-research questions, which guided the design of the interviews,
were related to the current status and future outlooks of the energy sector in Jordan, challenges and
conflicts hindering the sustainability of the energy sector and energy security, governance, and the
Sustainability 2020,12, 10465 6 of 25
role and potential of regional cooperation, as presented by Table 3. The first four topics are the main
overarching dimensions that were discussed in interviews, while the remaining five (from 5 to 9)
focused on specific questions on domains and options related to the energy sector in Jordan.
Table 3. Questions asked during the semi-structured interviews.
Topics/Themes and Dimensions
Discussed Questions Follow-Up Questions
1. Outlook and vision for the
energy sector What is your vision for the energy
sector in Jordan?
What do you think about the
future of the energy sector
in Jordan?
What should Jordan do to secure
its energy needs?
2. Challenges and barriers for
energy security and
its sustainability
What are the most significant
challenges?
Are there any relevant conflicts in
regard to the energy sector
in Jordan?
3. Potential and challenges of
regional cooperation
Is there any potential
international/regional cooperation
you believe should be pursued by
Jordan in the frame of the energy
sector?
If applicable: What is hindering
the implementation of this
cooperation?
What is the role of international
institutions in supporting the
energy sector in Jordan?
4. Energy governance How would you characterize the
governance of the energy sector
in Jordan?
If applicable: Is there any conflict
among stakeholders?
If applicable: Are those conflicts
influencing the governance of the
sector?
5. Water–energy nexus How is the coordination between
water and energy authorities?
Is there any kind of coordination
in the planning phase of water
and energy strategies?
If applicable: How could this
coordination be improved?
6. The nuclear option To what extent do you believe
securing energy from nuclear
could have potential for Jordan?
Reviewing ocial documents,
it seems that the nuclear option
has been abandoned: What have
been the most decisive factors in
favor of its abandonment?
7. The renewable option
What is the potential of renewable
energy in Jordan?
In which directions should
investments be made and what are
the most significant challenges?
8. The electricity market
How would you depict the
situation of the electricity sector
in Jordan?
What are the most significant
challenges?
What should be done to reform
this sector?
Are there any conflicts hindering
reform?
9. Energy demand by sector
Thinking of the energy demand of
dierent sectors, where do you see
particular challenges and/or
potential to improve eciency?
The high share of final energy
used for transportation seems to
be a peculiar trait of the Jordanian
economy. How would you solve
this issue? Where do you see the
main diculties in solving the
transportation issue?
Sustainability 2020,12, 10465 7 of 25
4. Energy Security in Jordan: A Review of Its Current Status
As it emerges from a brief review of the literature, the research on energy security in Jordan has
explored characteristics of the energy market in the country, adoption of renewable energy [
6
,
17
,
34
36
],
policies to boost it [
37
,
38
], and its potential and challenges [
13
15
]. Several contributions are also
dealing with the political implications of energy security [
39
], recommendations [
40
], and policy
options, in particular in relation to cooperation with neighboring countries [
5
,
11
,
16
]. Given the severe
water scarcity of the country and the increasing energy demand of the water sector, addressing the
water–energy nexus has been also discussed as an important element in achieving sustainability [
41
,
42
].
The reliance on imported energy has historically increased the vulnerability of Jordan towards regional
events, as “Jordan’s energy landscape has been impacted by relations between and among its Middle
Eastern neighbours” [
5
]. Thus, geopolitics, Jordanian foreign policy, and energy security have been
intertwined and interlinked and can serve as a useful lens to understand energy policy in Jordan [
39
].
4.1. The Energy Market
Average real economic growth between 2005 and 2011 was 6% per year and decreased to an
average of 2.4% between 2012 and 2018 [
43
]. Average yearly population growth for the same periods
was 4.6% and 3.8%, respectively [
43
]. On the opposite end, primary energy supply (meaning energy
production net of exports, international bunkers, and stock changes) was growing at a moderate rate
(1% per year between 2005 and 2011), whereas it registered a clear acceleration after 2012 (average
growth between 2012 and 2018 was 3.9% per year) (Figure 1). The consequences of the so-called
Arab Spring, the outbreak of the war in Syria, and the inflow of a large number of refugees with their
interconnected needs for shelter, electricity, water, and further basic needs have been heavily aecting
Jordan and its energy needs. The refugee crisis, together with the interruption of relatively cheap
natural gas imports from Egypt, faced Jordan with the urgent need to rethink energy security, and the
debate on energy has become one of the top political and economic priorities.
Sustainability 2020, 122, 465 7 of 25
4. Energy Security in Jordan: A Review of Its Current Status
As it emerges from a brief review of the literature, the research on energy security in Jordan has
explored characteristics of the energy market in the country, adoption of renewable energy [6,17,34–
36], policies to boost it [37,38], and its potential and challenges [13–15]. Several contributions are also
dealing with the political implications of energy security [39], recommendations [40], and policy
options, in particular in relation to cooperation with neighboring countries [5,11,16]. Given the severe
water scarcity of the country and the increasing energy demand of the water sector, addressing the
water–energy nexus has been also discussed as an important element in achieving sustainability
[41,42]. The reliance on imported energy has historically increased the vulnerability of Jordan
towards regional events, as “Jordan’s energy landscape has been impacted by relations between and
among its Middle Eastern neighbours” [5]. Thus, geopolitics, Jordanian foreign policy, and energy
security have been intertwined and interlinked and can serve as a useful lens to understand energy
policy in Jordan [39].
4.1. The Energy Market
Average real economic growth between 2005 and 2011 was 6% per year and decreased to an
average of 2.4% between 2012 and 2018 [43]. Average yearly population growth for the same periods
was 4.6% and 3.8%, respectively [43]. On the opposite end, primary energy supply (meaning energy
production net of exports, international bunkers, and stock changes) was growing at a moderate rate
(1% per year between 2005 and 2011), whereas it registered a clear acceleration after 2012 (average
growth between 2012 and 2018 was 3.9% per year) (Figure 1). The consequences of the so-called Arab
Spring, the outbreak of the war in Syria, and the inflow of a large number of refugees with their
interconnected needs for shelter, electricity, water, and further basic needs have been heavily
affecting Jordan and its energy needs. The refugee crisis, together with the interruption of relatively
cheap natural gas imports from Egypt, faced Jordan with the urgent need to rethink energy security,
and the debate on energy has become one of the top political and economic priorities.
Figure 1. Jordan’s primary energy supply and energy import between 2005 and 2018 (Data from the
Ministry of Energy and Mineral Resources, MEMR]).
As is evident in Figure 1, most of the energy supply is covered via import. Between 2005 and
2017, the import of energy represented on average 98.7% of primary energy supply. As a result of the
6000
6500
7000
7500
8000
8500
9000
9500
10000
10500
2005 2006 2007 2008 2009 2010 2011 2012 2013 2014 2015 2016 2017 2018
Primary energy supply and import (in 1000 TOE)
imports primary energy supply
Figure 1.
Jordan’s primary energy supply and energy import between 2005 and 2018 (Data from the
Ministry of Energy and Mineral Resources, MEMR]).
Sustainability 2020,12, 10465 8 of 25
As is evident in Figure 1, most of the energy supply is covered via import. Between 2005 and 2017,
the import of energy represented on average 98.7% of primary energy supply. As a result of the eorts
in diversifying the sources of energy and of the investment in renewable energy, imports decreased in
2018 to 94% of primary energy supply.
The energy market in Jordan is clearly dominated by oil products, followed by natural gas
(Figure 2). Renewable energy, which is mostly represented by solar electricity generation, has been
increasing its importance from less than 1% in 2010 [
7
,
44
] to reach a share of 7.8% of total primary
energy supply in 2018. The exploitation of wind energy is still a new development in Jordan, with
the first significant project in this regard launched in 2013 [
7
,
44
]. Data from the International Energy
Agency (IEA) [
3
] reveal that since then wind electricity generation has registered a rapid increase (from
2 GWh in 2014 to 449 GWh in 2017). As a comparison, in the same year, solar contributed to electricity
production with 897 GWh and hydroelectric generation with only 38 GWh.
Sustainability 2020, 122, 465 8 of 25
efforts in diversifying the sources of energy and of the investment in renewable energy, imports
decreased in 2018 to 94% of primary energy supply.
The energy market in Jordan is clearly dominated by oil products, followed by natural gas
(Figure 2). Renewable energy, which is mostly represented by solar electricity generation, has been
increasing its importance from less than 1% in 2010 [7,44] to reach a share of 7.8% of total primary
energy supply in 2018. The exploitation of wind energy is still a new development in Jordan, with
the first significant project in this regard launched in 2013 [7,44]. Data from the International Energy
Agency (IEA) [3] reveal that since then wind electricity generation has registered a rapid increase
(from 2 GWh in 2014 to 449 GWh in 2017). As a comparison, in the same year, solar contributed to
electricity production with 897 GWh and hydroelectric generation with only 38 GWh.
Figure 2. Composition of primary energy supply in Jordan between 2005 and 2018 (Data from the
MEMR)
Oil products and natural gas are also the most important components of the energy imports to
Jordan. Until 2011, natural gas was mostly imported at a favorable price from Egypt to Jordan through
the Arab Gas Pipeline (Figure 3). The construction of the pipeline was initiated in 2001 and the first
section connected Arish in the Sinai Peninsula to Aqaba, Jordan [45]. Further sections were then
progressively built to connect Aqaba to the Syrian border, and from there throughout Syria to
Lebanon and the Turkish border [46].
0%
10%
20%
30%
40%
50%
60%
70%
80%
90%
100%
2005 2006 2007 2008 2009 2010 2011 2012 2013 2014 2015 2016 2017 2018
Composition of Primary Energy Supply
Total oil Natural gas Renewable energy Other sources
Figure 2.
Composition of primary energy supply in Jordan between 2005 and 2018 (Data from the MEMR).
Oil products and natural gas are also the most important components of the energy imports to
Jordan. Until 2011, natural gas was mostly imported at a favorable price from Egypt to Jordan through
the Arab Gas Pipeline (Figure 3). The construction of the pipeline was initiated in 2001 and the first
section connected Arish in the Sinai Peninsula to Aqaba, Jordan [
45
]. Further sections were then
progressively built to connect Aqaba to the Syrian border, and from there throughout Syria to Lebanon
and the Turkish border [46].
Sustainability 2020,12, 10465 9 of 25
Figure 3. Map of the Arab Gas Pipeline (Source: Scheer, 2019) [47].
As a consequence of the Arab Spring events in Egypt in 2011, the import of natural gas had a
sharp drop and continued to decrease until 2014 (Figure 4). More costly oil imports made up for the
gap in the supply. Since 2014, natural gas import has increased and, accordingly, the import of oil has
decreased. In 2015, the Sheikh Sabah Liquified Natural Gas port was established in Aqaba to enable the
import of natural gas, shipped from dierent international sources on market basis. This represented
an important step in diversifying the sources of imported energy.
Sustainability 2020, 122, 465 9 of 25
Figure 3. Map of the Arab Gas Pipeline (Source: Scheer, 2019) [47].
As a consequence of the Arab Spring events in Egypt in 2011, the import of natural gas had a
sharp drop and continued to decrease until 2014 (Figure 4). More costly oil imports made up for the
gap in the supply. Since 2014, natural gas import has increased and, accordingly, the import of oil
has decreased. In 2015, the Sheikh Sabah Liquified Natural Gas port was established in Aqaba to
enable the import of natural gas, shipped from different international sources on market basis. This
represented an important step in diversifying the sources of imported energy.
Figure 4. Energy import composition in Jordan between 2005 and 2018 (Data from the MEMR).
It is interesting to note the implications of these international developments for the overall cost
of energy: In 2009, the cost of consuming energy represented 12% of GDP. As a result of the
substitution of Egyptian natural gas with oil, this cost reached a peak of 21% of GDP in 2012 and was
on average 18.9% between 2011 and 2014. Starting to import natural gas through the Aqaba terminal
reduced the cost of energy to an average share of 8.8% between 2015 and 2018 (data have been
extracted from the respective MEMR Annual Reports). The increase in oil imports was mostly used
to substitute natural gas in electricity generation. As a result, between 2011 and 2015, the National
Electric Power Company (NEPCO) cumulated a debt of JOD 5 billion (around USD 7 billion).
0
2000
4000
6000
8000
10000
12000
2005 2006 2007 2008 2009 2010 2011 2012 2013 2014 2015 2016 2017 2018
Energy import composition (1000 TOE)
imports oil import NG import
Figure 4. Energy import composition in Jordan between 2005 and 2018 (Data from the MEMR).
It is interesting to note the implications of these international developments for the overall cost of
energy: In 2009, the cost of consuming energy represented 12% of GDP. As a result of the substitution
of Egyptian natural gas with oil, this cost reached a peak of 21% of GDP in 2012 and was on average
18.9% between 2011 and 2014. Starting to import natural gas through the Aqaba terminal reduced the
cost of energy to an average share of 8.8% between 2015 and 2018 (data have been extracted from the
respective MEMR Annual Reports). The increase in oil imports was mostly used to substitute natural
gas in electricity generation. As a result, between 2011 and 2015, the National Electric Power Company
(NEPCO) cumulated a debt of JOD 5 billion (around USD 7 billion).
Sustainability 2020,12, 10465 10 of 25
4.2. Energy Consumption
Final energy consumption remained stable between 2005 and 2011, but it has since then
considerably increased. This is also evident considering the growth rates of final energy consumption
as presented in Figure 5. The average growth was less than 0.38% per year between 2006 and 2011 and
it jumped to an average growth of 5% between 2012 and 2018. This rapid and sustained trend could be
motivated by the inflow of refugees due to the war in Syria (2.8 million refugees registered with the
United Nations High Commissioner for Refugees, UNHCR) [48].
Sustainability 2020, 122, 465 10 of 25
4.2. Energy Consumption
Final energy consumption remained stable between 2005 and 2011, but it has since then
considerably increased. This is also evident considering the growth rates of final energy consumption
as presented in Figure 5. The average growth was less than 0.38% per year between 2006 and 2011
and it jumped to an average growth of 5% between 2012 and 2018. This rapid and sustained trend
could be motivated by the inflow of refugees due to the war in Syria (2.8 million refugees registered
with the United Nations High Commissioner for Refugees, UNHCR) [48].
Figure 5. Growth of final energy consumption in Jordan between 2006 and 2018 (Data from the
MEMR).
This line of explanation is also supported by disentangling final energy consumption by use
(Figure 6). The year 2012 witnessed an increase in final energy consumption by household, vis-à-vis
a drop in energy consumption by industry. A further trend, which can be rationalized with the same
explanation, is the increase in the share of final energy consumed for transportation. In 2018, half of
final energy consumption (49%) was due to transport, 21% to household uses, and 14% to industry.
Figure 6. Final energy consumption by use between 2005 and 2018 (Data from the MEMR).
-10
-5
0
5
10
15
2006 2007 2008 2009 2010 2011 2012 2013 2014 2015 2016 2017 2018
Growth of final energy consumption (%)
Average growth
2006-2011
Average growth
2012-2018
0
500
1000
1500
2000
2500
3000
3500
4000
2005 2006 2007 2008 2009 2010 2011 2012 2013 2014 2015 2016 2017 2018
Final Energy Consumption by use (1000 TOE)
industry transport household
services others non energy use
Figure 5.
Growth of final energy consumption in Jordan between 2006 and 2018 (Data from the MEMR).
This line of explanation is also supported by disentangling final energy consumption by use
(Figure 6). The year 2012 witnessed an increase in final energy consumption by household, vis-
à
-vis a
drop in energy consumption by industry. A further trend, which can be rationalized with the same
explanation, is the increase in the share of final energy consumed for transportation. In 2018, half of
final energy consumption (49%) was due to transport, 21% to household uses, and 14% to industry.
Sustainability 2020, 122, 465 10 of 25
4.2. Energy Consumption
Final energy consumption remained stable between 2005 and 2011, but it has since then
considerably increased. This is also evident considering the growth rates of final energy consumption
as presented in Figure 5. The average growth was less than 0.38% per year between 2006 and 2011
and it jumped to an average growth of 5% between 2012 and 2018. This rapid and sustained trend
could be motivated by the inflow of refugees due to the war in Syria (2.8 million refugees registered
with the United Nations High Commissioner for Refugees, UNHCR) [48].
Figure 5. Growth of final energy consumption in Jordan between 2006 and 2018 (Data from the
MEMR).
This line of explanation is also supported by disentangling final energy consumption by use
(Figure 6). The year 2012 witnessed an increase in final energy consumption by household, vis-à-vis
a drop in energy consumption by industry. A further trend, which can be rationalized with the same
explanation, is the increase in the share of final energy consumed for transportation. In 2018, half of
final energy consumption (49%) was due to transport, 21% to household uses, and 14% to industry.
Figure 6. Final energy consumption by use between 2005 and 2018 (Data from the MEMR).
-10
-5
0
5
10
15
2006 2007 2008 2009 2010 2011 2012 2013 2014 2015 2016 2017 2018
Growth of final energy consumption (%)
Average growth
2006-2011
Average growth
2012-2018
0
500
1000
1500
2000
2500
3000
3500
4000
2005 2006 2007 2008 2009 2010 2011 2012 2013 2014 2015 2016 2017 2018
Final Energy Consumption by use (1000 TOE)
industry transport household
services others non energy use
Figure 6. Final energy consumption by use between 2005 and 2018 (Data from the MEMR).
The high share of final energy used for transportation seems to be a peculiar trait of the Jordanian
economy, which has become even more pronounced since 2012. Worldwide, industry consumes the
Sustainability 2020,12, 10465 11 of 25
highest share of energy (29.2% according to data by the International Energy Agency (IEA) for the year
2017), followed closely by transportation (28.8%) and household consumption (21%). Also considering
the Middle East as aggregate, the rank remains the same, though with slightly dierent shares (30.5%
industry, 27.2% transportation, and 17.6% household according to the IEA for 2017). In Jordan, on the
contrary, the share of final energy consumption by industry is less than that of transportation and
household, and industrial final energy consumption has been decreasing both in absolute and in
relative value. This can be linked to the slow but steady decrease of the value added of industry to
GDP. According to the World Development Indicators [
45
], the value added of industry to Jordanian
GDP decreased from 32% in 2008 to reach 27.5% in 2018.
Energy intensity progressively increased from 223 koe/USD 1000 at constant prices in 2013 to
247 koe/USD 1000 in 2017 and 235 koe/USD 1000 in 2018. The increase in energy intensity, not backed
up by sustained economic growth, can be attributed to inecient utilization of energy and increased
standards of living. Interviewees also mentioned that the historically low prices of fuel and electricity
in Jordan contributed to spreading unsustainable patterns of consumption, similar to those of the
oil-rich countries in the region. Even though the situation with the prices has changed, consumption is
slow in adapting. The interviewees thus signaled the urgent need to reduce energy demand via energy
saving and favored the view that this can be achieved via incentives (currently missing overall in the
legislation) and via awareness campaigns.
4.3. Electricity
In Jordan, around 39% of primary energy is used for electricity generation and is essentially
produced from natural gas and oil [
40
]. According to a statement by NEPCO, in 2018, imported
natural gas contributed to 93% of electricity generation [
49
]. The remaining share was generated by
relying on crude oil, solar, and hydropower (Figure 7). Crude oil imported from Iraq at below market
price made up for the big bulk of electricity production until the Iraq War of 2003. Iraqis’ crude oil
was then progressively substituted via natural gas from Egypt. The situation continued until 2010,
when instabilities in Egypt caused disruption to the flow of natural gas to Jordan, which had to be
substituted via crude oil. In 2015, electricity generation went back to the predominance of the cheaper
natural gas. Figure 7also shows an increase in the share of renewable energy power generation.
Figure 7.
Electricity generation in Jordan by source between 1990 and 2018 (Data source: IEA, 2020) [
50
].
Jordan grants universal access to electricity for its population, as the totality of both rural and
urban populations have access to electricity. Electricity consumption has been steadily increasing
and the largest share is consumed by households (Figure 8). In 2018, households consumed 46% of
Sustainability 2020,12, 10465 12 of 25
electricity, industries 22%, water pumping 16%, commercial activities 14%, and street lighting the
remaining 2%.
Sustainability 2020, 122, 465 12 of 25
the largest share is consumed by households (Figure 8). In 2018, households consumed 46% of
electricity, industries 22%, water pumping 16%, commercial activities 14%, and street lighting the
remaining 2%.
Figure 8. Jordan’s electricity consumption by use between 2005 and 2018 (Data from MEMR).
The cost of electricity is therefore crucial to the Water Authority of Jordan (WAJ), which is the
largest electricity customer in the country. From desk research and as confirmed by interviews,
renewable energy could definitely be upscaled for water pumping purposes. At present, significant
examples of projects for renewable energy production in Jordan are the renewable wind energy
plants in Tafileh and the solar plant in Qweider, generating 100 and 70 MW electricity per year,
respectively. The interviews also signaled the possibility of investing in other forms of renewable
energy to support the energy needs of the water sector. A priority would be to upscale hydropower
at water treatment plants. Interviewees also saw some interesting experiences that could be upscaled,
such as the As-Samra Waste Water Plant, which was completed in 2008 and is 80% powered by a
combination of hydraulic turbines and biogas.
A challenge in this direction seems to be the very limited cooperation between water and energy
institutions and stakeholders. This has been highlighted already by very recent research [41], which
also supports the view that there are no significant conflicts in the preferences of water and energy
stakeholders [42]. Our interviewees labeled the absence of coordination between the two sectors as a
missed opportunity to address the nexus. Necessary steps would be to formulate a comprehensive
plan for the water–energy nexus and to modify the regulatory framework to make its implementation
possible. Other interviewees pointed to the importance of including agriculture in the nexus,
adopting a more participatory approach and empowering stakeholders.
While Figure 8 shows that electricity consumption has been steadily increasing in the past
decade, it is necessary to consider that per capita electricity consumption has decreased since 2015. It
is currently assessed on a level of 1701 KWh [10]. This may be the result of new tariffs driving better
efficiency in electricity use and better efficiency of household appliances and machineries, as well as
of the increase in small-scale renewable projects, in particular for establishments such as universities,
large enterprises, government institutions, schools, and hospitals (for an overview on small-scale
renewable projects, see Ministry of Energy and Mineral Resources, MEMR, various annual reports).
However, a different line of explanation seems to also be plausible: according to the Jordan National
Social Protection Strategy for 2019, poverty increased among Jordanians (not counting refugees) from
14.4% in 2010 to 15.7% in 2018. Notably, socio-economic conditions have pronounced implications on
electricity consumption, so reduced electricity consumption may be the sign of growing poverty. An
0
2000
4000
6000
8000
10000
12000
14000
16000
18000
20000
2005 2006 2007 2008 2009 2010 2011 2012 2013 2014 2015 2016 2017 2018
Electricity consumption by use (GWh)
Household Industrial Commercial Water Pumping Street Lighting
Figure 8. Jordan’s electricity consumption by use between 2005 and 2018 (Data from MEMR).
The cost of electricity is therefore crucial to the Water Authority of Jordan (WAJ), which is the
largest electricity customer in the country. From desk research and as confirmed by interviews,
renewable energy could definitely be upscaled for water pumping purposes. At present, significant
examples of projects for renewable energy production in Jordan are the renewable wind energy plants
in Tafileh and the solar plant in Qweider, generating 100 and 70 MW electricity per year, respectively.
The interviews also signaled the possibility of investing in other forms of renewable energy to support
the energy needs of the water sector. A priority would be to upscale hydropower at water treatment
plants. Interviewees also saw some interesting experiences that could be upscaled, such as the As-Samra
Waste Water Plant, which was completed in 2008 and is 80% powered by a combination of hydraulic
turbines and biogas.
A challenge in this direction seems to be the very limited cooperation between water and
energy institutions and stakeholders. This has been highlighted already by very recent research [
41
],
which also supports the view that there are no significant conflicts in the preferences of water and
energy stakeholders [
42
]. Our interviewees labeled the absence of coordination between the two sectors
as a missed opportunity to address the nexus. Necessary steps would be to formulate a comprehensive
plan for the water–energy nexus and to modify the regulatory framework to make its implementation
possible. Other interviewees pointed to the importance of including agriculture in the nexus, adopting
a more participatory approach and empowering stakeholders.
While Figure 8shows that electricity consumption has been steadily increasing in the past decade,
it is necessary to consider that per capita electricity consumption has decreased since 2015. It is currently
assessed on a level of 1701 KWh [
10
]. This may be the result of new taris driving better eciency in
electricity use and better eciency of household appliances and machineries, as well as of the increase
in small-scale renewable projects, in particular for establishments such as universities, large enterprises,
government institutions, schools, and hospitals (for an overview on small-scale renewable projects, see
Ministry of Energy and Mineral Resources, MEMR, various annual reports). However, a dierent line
of explanation seems to also be plausible: according to the Jordan National Social Protection Strategy
for 2019, poverty increased among Jordanians (not counting refugees) from 14.4% in 2010 to 15.7% in
2018. Notably, socio-economic conditions have pronounced implications on electricity consumption,
so reduced electricity consumption may be the sign of growing poverty. An interesting analysis on
Sustainability 2020,12, 10465 13 of 25
the relation between income and electricity consumption in Jordan demonstrates that in Amman city,
which alone hosts almost one third of the total population in Jordan, densely populated areas have
much lower electricity consumption than low-density areas [
51
]. Moreover, the decrease was registered
in the per capita consumption—not the total consumption, which increased. Therefore, this may be
caused by a lower per capita consumption by the people who moved to Jordan after 2014.
4.4. Energy Policy and Strategies
As said, energy security is now at the top of the policy debate in Jordan. The scarcity of natural
resources in general and the reliance on imports to face energy needs put the country in a vulnerable
position. Both authorities and public opinion are aware of the need to envision strategies to reach
sustainable energy security, diversify the sources of energy and of imports, and increase the contribution
of domestic sources.
Historical developments have been shaping the energy market in Jordan and reviewing them
can help to better understand the options and strategies that are currently being envisioned towards
securing the growing energy needs of the country. The 1990s reinforced the dependency of Jordan
on fossil fuel. Until 2002, Jordan depended almost exclusively on Iraq to import crude oil and oil
derivatives at a favorable price [
52
]. Under Saddam Hussein, Iraq delivered oil to Jordan for roughly
one third of its market price and also allowed Jordan to pay in consumer goods [
53
]. In addition,
Jordan met its electricity needs by importing electricity from Egypt and Syria. Even though the 1990s
witnessed some progress in the adoption of solar panels for household water heating use, the overall
cheap prices of imported energy prevented an upscale of renewable energy projects and investment in
related research and development [54].
With the Iraq War in 2003 and the end of Saddam Hussein’s regime, Jordan could no longer
secure its oil demand from Iraq and started importing oil mostly from Saudi Arabia at market prices.
The energy bill started to grow following the steady increase in international oil prices. To reduce costs,
Jordan started importing liquified natural gas from Egypt through the Arab Pipeline, which became
operative in 2003. Natural gas was used to operate some power plants in substitution of the previously
used oil.
All of these developments induced the authorities to formulate the first National Energy Eciency
Strategy 2005–2020. The strategy was released in 2005 and then updated in 2007 to the Master Strategy
for the Energy Sector 2007–2020. The strategy and the master plan were organized over three main
chapters, namely, (1) oil, electricity, and natural gas; (2) the renewable energy sector and energy
conservation sector; and (3) the alternative and local energy sector. Overall, the guiding principles
were the need to rationalize energy consumption and increase eciency and reliance on renewable
resources. Eciency was to be enhanced via taris and pricing mechanisms, as well as via the support
of investments in energy-saving techniques and the reduction of customs and duties on electric vehicles.
Concerning the promotion of renewable energy resources, the strategy signaled the need to issue a
renewable energy law, to attract private sector investment, and to create a fund to support renewable
energy projects [
55
]. The “Renewable Energy and Energy Eciency Law” (RE & EE) was promulgated
in 2012 (Law No. 13 of 2012). Even though the RE & EE Law clearly represented an important and
essential first step towards the upscaling of renewable energy projects in the kingdom, it was not clear
concerning the cost of interconnecting renewable energy projects to the national grid and in suggesting
a pricing reference of feed-in taris [54].
A second National Strategy for the Energy Sector was formulated for the 2015–2025 period,
followed by another one for the 2020–2030 period. In general, both of these strategies have a strong
focus on energy security and share the main objectives of the 2007–2020 document of diversifying the
sources of energy to reduce vulnerability from external development and price fluctuations, investing
in renewable energy and eciency, boosting local energy production, and exploring alternative energy
options. Both strategies aim at reducing the reliance on (imported) oil fuels in producing electricity.
The 2015–2025 strategy envisions that by the end of 2025, 47% of electricity should come from nuclear
Sustainability 2020,12, 10465 14 of 25
sources, 26% from oil, 15% from renewable energy, and 11% from oil shales. Taking into consideration
the diculties in implementing the nuclear program, the strategy for 2020–2030 has abandoned nuclear
ambitions and is prospecting a share of 53% of electricity to be produced via natural gas, 31% through
renewable energy, 15% through oil shales, and only 1% using oil.
In 2008, the Jordan Atomic Energy Commission was established to develop the peaceful use of nuclear
energy in the country. The commission was established in place of the Jordan Nuclear Energy Commission,
which was founded in 2001. In 2008, the Jordan Nuclear Regulatory Commission—substituted by the
Energy and Minerals Regulatory Commission in 2014—was responsible for coordinating feasibility studies
of the uranium deposits, for studying regulatory mechanisms and safety procedures for the exploitation
of nuclear energy, and for studying the financial feasibility of the program). The option of nuclear
energy has been envisioned to generate electricity and to desalinate water, making use of the uranium
deposits in Jordan [
56
]. In 2016, the Jordan Research and Training Reactor was established on the
premises of the Jordan University of Science and Technology (JUST). There has been a vivid debate
on nuclear energy and implementation strategies (two large reactors versus several smaller modular
reactors), and several possible strategic partners have been considered (for a glance at the stand
with the nuclear program in Jordan, see the information provided by the World Nuclear Association:
https://www.world-nuclear.org/information-library/country-profiles/countries-g-n/jordan.aspx and
newspaper sources: https://www.jordantimes.com/news/local/jordan-replace-planned-nuclear-plant-
smaller-cheaper-facility;https://www.7iber.com/2014/jo-nuclear-program/). Studies on the uranium
deposits, on the financial feasibility of the nuclear program, and on the necessary regulatory mechanisms
and safety procedures for the exploitation of nuclear energy have pointed to some key challenges.
Amongst these challenges are the critical aspects of water availability for cooling [57] and the quality
of the uranium deposits [
58
]. The nuclear program has also encountered some opposition among
civil society and environmental activists. These challenges led the Jordanian government to the 2018
decision to close and liquidate the Jordan Nuclear Power Company (JNPC). Reviewing the National
Strategy for the Energy Sector 2020–2030 and its expectations for the 2030 energy mix, it seems that the
concerns over possible risks of nuclear energy have prevailed and that the program has therefore been
abandoned. Interviews confirmed that while there has been vivid debate in the country about the pros
and cons of embarking on nuclear energy production, the plan was not pursued and was abandoned
in the end.
Concerning oil shales, Jordan is the eighth country worldwide in terms of reserves [
59
]. Challenges
hindering the exploitation of oil shales were (and still are) the cost intensity of the extraction process
and the diculty of mitigating environmental eects, with oil shale being an extremely polluting
energy source. Interviewees shared in general the opinion that given the abundance of superficial oil
shales in Jordan, oil shales definitely represent an interesting option for the energy mix of the country.
Despite the commitment of the authorities to reach a 10% share of energy from renewable sources
and the favorable conditions for solar and wind, infrastructure, lack of funds and local financing
schemes, and the size of the domestic market are discouraging investments in the sector and are
hindering the transition [
14
]. To unleash the potential of renewable energy in Jordan, some contributions
have been exploring the possibility of new transnational agreements, mostly between Jordan and Israel,
suggesting, for instance, the exchange between desalinated water from Israel and Palestine and solar
energy from Jordan [
11
,
16
], or, more in general, the potential of increased transnational cooperation
and better connectivity of the national grids with Israel [
5
], often framing it within the regional project
of the Red Sea–Dead Sea Canal. Nevertheless, these regional projects, while promising on a technical
level, have and bring up political barriers and considerations that have precluded their realization.
Azzuni et al. [
12
], based on simulation results, posit that “a transition towards a 100% renewable
energy system for Jordan would be technically feasible and economically viable.”
Jordan’s potential for renewable energy—specifically solar—is unquestionable, being located
in the sun belt and enjoying an average of 316 sunny days per year, having wind speeds ranging
between 7 and 8.5 m/s [
7
,
10
], and having large desert areas with low population. As the example of
Sustainability 2020,12, 10465 15 of 25
Germany teaches, however, getting the maximum benefit out of renewable energy is more a question of
political will, coordinated action, and investment, rather than a mere issue of resources and conditions.
Jordan has taken important steps concerning the adoption of renewable energy technologies, but the
overall achievements are still below the targets. Major obstacles are the high initial cost of producing
energy through renewables and the high investments needed. Given the limited financial capabilities
of the state, the authorities have been thus relying on private investments and are following the
strategy to provide incentives to investors and launch Public–Private Partnerships (PPPs). Among
other incentives, industrial renewable energy projects are granted a two-year exemption on income tax
and a lifelong exemption on property tax [60].
A competitive bidding mechanism has been developed to select investors through calls for
direct proposals. So far, three direct proposals rounds have been announced, in 2011, 2013, and 2016.
Any local and international stakeholder was free to submit a technical and financial oer for a specific
project defined by the Ministry of Energy and Natural Resources (MEMR). To incentivize the private
companies, the Jordanian government committed to buying the electricity generated—at least for the
establishment phase—at a negotiated price [
40
,
42
]. As elaborated in Section 5, some of the interviewees
mentioned that the state is in many cases overly rewarding the private companies in the frame of
PPPs. This can be interpreted as a form of weak governance, which seems to have imprinted Jordan’s
public–private relationships since the beginning of the industrialization policies of the 1950s. As the
International Bank for Reconstruction and Development (IBRD) noted back in 1957, the “degree of
security given to its shareholders [
. . .
] is so excessive as to give rise to a distorted notion of what
should be considered reasonable riskbearing in industrial ventures” [61].
Further eorts have been also put into the realization of smaller-scale renewable projects
(and connection to the grid) for universities, commercial and industrial enterprises, government
institutions, schools, mosques, and hospitals [
7
,
44
]. Relatively widespread is also the use of solar
panels for water heating by households, as approximately 15% of households make use of solar panels
for water heating [
62
]. In general, international support and grants have been also contributing to the
development of the renewable energy sector.
5. Results
The interviews reflected the perspectives of experts, decision-makers, and professionals in the field
of energy and thus enabled us to understand the debate underlying the formulation and adoption of
strategies, the implementation of policies, and the degree of integration of stakeholders’ perspectives.
The interviewees were coherent in signaling the potential of Jordan as an energy producer and in
pointing to substantial challenges in terms of governance and lack of enabling the environment towards
the envisioned transition. They also pointed to the existence of vested interests and stakeholders
striving towards the maintenance of the status quo. Table 4presents some selected quotes from the
interviews related to issues that we consider to be representative and expressing consensual views
among the interviewees.
Sustainability 2020,12, 10465 16 of 25
Table 4. Semi-structured interview results.
Topics/Themes and Dimensions Quote by Interview Number
1. Outlook and vision for the energy sector
“The energy sector in Jordan would be very promising, but it is a big mess. Major opportunities are solar, wind,
clean gas, and domestic oil shales to complement the mix” (Interview 1).
“Globally, the trend is towards an energy mix based on domestic sources. For Jordan that would be renewable
energy and oil shales. Important would be, however, to reduce demand through energy savings. Energy
intensity is high in Jordan: consumption patterns are similar to those of oil-rich countries, based on the
cheapness of energy in the past. The shift towards better eciency should be a priority, too” (Interview 3).
2. Challenges and barriers for energy security and its sustainability
“Potentially the supply should exceed demand in Jordan, but over the last seven to eight years no investments
were attracted.” “Bureaucratic thinking is hampering the transition, which would be feasible” (Interview 1).
“Regulations and a clear institutional setup are the big issues: without fixing them, no transformation will be
possible” (Interview 4).
“The Ministry (of Energy and Mineral Resources) has progressive ideas and somehow the will to innovate,
but there are strong vested interests hampering the transition” (Interview 7).
“The main challenges towards diversifying sources are the aordability, availability, and accessibility: for Jordan
this reflects the technical challenges with the need to update the infrastructure, but also the changes in interests.
There are very powerful groups that are now in certain positions, like the actors in the electricity market,
and are resisting the transition. Consumption patterns need to be addressed, too, taking, however,
into consideration price distortions and socio-economic implications” (Interview 3).
3. Potential and challenges of regional cooperation
“Connectivity in the electricity market would be interesting, indeed, but there is no political will. In general,
for any kind of agreement, there would be a need to set the legal framework, find reliable partners,
have regional stability, invest/build infrastructure (even though the infrastructure would partly be there,
for pipelines, for example, but also partly for the grids, e.g., to Lebanon through Syria). The connection is there,
but no exchange is taking place” (Interview 3).
“Political frictions and stability are clearly on the way” (Interview 8).
4. Energy governance
“That is a big issue. For long-term strategies you need to be sure that what you start will be further
implemented by future governments” (Interview 1).
“Very weak: changing people, changing policies. There is no real long-term coherent implementation of
strategies” (Interview 9).
“Governance is lacking. A further big problem is the absence of coordination between central and local
administrative authorities; eectiveness at the local level is very low, local capacities are not there, and there are
huge gaps in local administrations” (Interview 2).
“(Governance is) personalized: Everybody brings their friends to power, no line of continuity” (Interview 6).
5. Water–energy nexus
“The nexus is not there. The coordination between energy and water sectors are missing and the governance is
weak” (Interview 1).
“Institutions are there, but they do not really coordinate. Coordination is weak, dierent perspectives, and every
entity has its own interests and targets” (Interview 3).
“(There is) no coordination at all between stakeholders, no cooperation between authorities. On the
contrary—there is no real exchange of information” (Interview 6).
“The potential of hydraulic energy is underestimated and lost due to the non-existence of the water–energy
nexus” (Interview 5).
Sustainability 2020,12, 10465 17 of 25
Table 4. Cont.
Topics/Themes and Dimensions Quote by Interview Number
6. The nuclear option
“Crazy idea—350 mL were spent in feasibility studies!” (Interview 1).
“Nuclear has appeal, but it has been shown to be too expensive and not ecient. In Jordan, then, the risks
would be too many (regional instability, peaceful intentions may come into question). Not realizable, as there is
no water (the option to desalinate would add to the costs)” (Interview 2).
“The idea belongs to the past; the future is for renewable energy. Nuclear is in general too costly, not green in
the end, too risky (see what happens in Japan—what do you think could happen in Jordan?), needs lots of
energy to operate, lots of water, too risky. The good thing is that nuclear energy encountered fierce opposition
by the public opinion” (Interview 4).
“If operated well, nuclear energy might be even a safe option. However, governance is crucial, and that would
be an issue in Jordan, going beyond water scarcity, needed investments, and other technical conditions. It was a
crazy idea that cost a lot only for studies!” (Interview 3).
7. The renewable option
“Renewable energy targets are currently not ambitious at all. Renewable energy should be considered not just
for electricity generation, but should also be expanded for mobility (e-cars), industry, and potentially all sectors
of economic activity” (Interview 2).
“Potential is huge, but political will is still not really there and the funds, of courses, are also creating issues.
A more integrated approach would be needed for renewable energy adoption, e.g., building codes, increasing
public awareness . . . (Interview 4).
8. The electricity market
“There are many vested interests (first of all, NEPCO). NEPCO fears reform” (Interview 4).
“NEPCO is a big barrier and international actors are not prone to talking with them” (Interview 9).
“There is no real stakeholder consultation. Many opportunities are missed in this way” (Interview 10).
“Nobody really speaks about energy conservation in Jordan; there is no interest in that” (Interview 1).
“(There is) no competition at that level. NEPCO has a monopoly, de facto, and has no incentives to change”
(Interview 3).
9. Energy demand by sector
“Public transportation does not exist, taxis are driving around all the time, there were plans for a
Zarqa–Amman railway, but nobody knows what happened with it... Funds are playing a role for sure. We have
been talking about the express bus forever and see? It is still not working...” (Interview 7).
“Socio-economic implications are to be considered. A railway does not seem to be feasible. First it requires a
long-term commitment and governance is again a big issue. In addition, a railway would face some political
obstacles, not least the employment repercussions on the people living on the current transport industry”
(Interview 2).
“A big issue in Jordan is also represented by MSMEs (Micro Small and Medium Enterprises, authors’ note) They
also require lots of small trucks to serve them” (Interview 9).
Sustainability 2020,12, 10465 18 of 25
6. Discussion
In general, the topics that emerged in the interviews could cover the dimensions of sustainable
energy security included in the theoretical framework: The interviewees provided elements related
to characteristics of energy supply and developed their vision for the sector. They further reflected
on aordability and realizability, which related to the economic and technological dimensions as
well as the environmental externalities and social impact of the envisioned alternatives. Geopolitical
considerations emerged both in regard to the dependency on import and to the challenges and potential
of regional and international cooperation.
An essential result is that interviewees unveiled several conflicts that are relevant to the energy
sector in Jordan and that hamper the sustainability of energy security at dierent levels, conflicts that
were not evident in the review of policies, governmental reports, and from the desk research. All of
the interviewees favored a transition towards a future energy mix dominated by renewable energies,
mostly solar and wind, and supported, for a minimum necessary share of conventional sources of
energy, by imported natural gas and domestic oil shales. However, they pointed to inherent conflicts
and trade-os the envisioned transition would bring, as well as to conflicting views and interests
weakening the political will towards this transition and in the end hampering change.
One of these conflicts is represented by environmental and economic considerations in regard to
dierent energy options. This conflict emerged, among others, in regard to the diversification of the
energy mix, with the idea of integrating the energy mix by making use of oil shales, which is notably a
highly polluting energy source, but which Jordan could exploit due to its large reserves and which
could have positive repercussions on employment. Interviewees in general highlighted that oil shale
extraction would provide the geopolitical advantage of reducing dependency on imports and, being a
heavy industry, would generate employment. Some of the interviewees also highlighted that due to the
increase in oil prices, oil shale extraction is becoming economically more attractive. In addition, part of
the polluting externalities from oil shale extraction could be counterbalanced, for example via water
filtering of the sulfur dioxide emissions, which could be then converted into marketable sulfuric acid.
Another situation where interviewees saw a mismatch of environmental sustainability of energy
security and economic consideration was the expansion of renewable energy opposed by actors in the
electricity market, fearing the loss of their monopolistic role. The suggested solution to unpack these
conflicts was to promote a more participatory approach to strategy development and the reform of the
electricity sector so as to encompass the perspective of the plurality of stakeholders involved.
The expansion of renewable energy adoption may also potentially imply some conflicts at the
social level, which would, however, be limited to the short to medium term. Quoting an interviewee,
this is the case of “price distortions that would come with any change, until things settle in the long term.
And, notably, renewal energy increases the prices in the short term,” so that appropriate mitigation
should be put in place to protect the end consumer and more vulnerable groups of society.
Social conflicts may also arise in trying to improve transportation. The interviewees highlighted
that the high share of energy used by transport is also associated with the lack of an ecient
transportation net, for both goods and persons. Both desk research and interviews corroborate the idea
that there are no plans to find alternatives to road transportation, in general. All of the interviewees
noted that the current inecient transportation mode is generating much employment and a solution
would need to take into consideration and try to reduce the social cost of the transition. Concerning
person mobility, public transportation is highly inecient and the timid attempts to improve the bus
network in the capital city Amman are based, according to interviewees, on an “outdated model,
fostering non-optimal public transportation.” Road transport is also the only modality of transportation
for goods, too. In this regard, some of the interviewees noted that the reliance on imports and the
predominance of small and medium enterprises, which are served by a huge number of small trucks,
contribute to the bloated energy consumption of the transport sector. A further issue that was raised
in the interviews was the absence of a pipeline to transport crude oil from the port of Aqaba to the
refinery in Zarqa. The cost of transporting crude oil via trucks is considerable, in addition to the
Sustainability 2020,12, 10465 19 of 25
negative environmental externalities and the congestion of the road infrastructure. According to our
interviewees, the need to build a pipeline to serve the refinery would be a strategic priority for the
country and has been under discussion for a long time. The interviewees highlighted that in 2007,
a very prominent case of corruption emerged, involving, among others, the pipeline, and plans were
put aside. To the best of our knowledge and as confirmed in the interviews, there are currently no
concrete plans in this direction.
A further interesting point that was confirmed in interviews is that political instability and frictions
are obstacles towards exploiting the existing potential of regional cooperation in the field of energy,
which could definitely contribute to the sustainability of energy security and to regional stability.
In this regard, some of our interviewees would like to see increased involvement by the international
community in supporting the development and implementation of a comprehensive strategy for a
more sustainable energy sector in Jordan. In their opinion, it could build on the existing dialogue
with the European Union and with European agencies towards the development of a modern and
supportive regulatory framework and the involvement of the Japan International Cooperation Agency
(JICA) towards the modernization of the electricity sector (inspired by the 3-L principles of energy
supply at low cost, low carbon, and low risk) [
63
]. In their view, these experiences should be upscaled
and should start targeting regional cooperation in the electricity sector, too, which cannot be possible
without supportive international mediation.
Steps towards the Modernization of the Energy Sector
Several important steps have been taken to restructure the energy sector in Jordan. First of all,
the market for oil and petroleum derivatives has been progressively restructured and liberalized.
Three companies were licensed in 2013 and started to operate in 2016, importing an increasing share
and portfolio of oil products. Since 2018, these three companies have been able to import all of
their needs through petroleum derivatives. In 2015, the government also founded the Jordan Oil
Terminals Company (JOTC), a private shareholding company fully owned by the government, which is
responsible for the storage and handling of all petroleum products, as well as for securing oil supply
and ensuring competition.
Before, the only company operating in the market for petroleum derivatives and holding the
exclusive right to refine crude oil and trade and market petroleum products in Jordan was the Jordan
Petroleum Refinery Company, founded in 1956. The Jordan Petroleum Refinery Company is still
the only refinery in the country and is currently planning, with the support of foreign partners,
an ambitious expansion project [64].
The authorities also signed a draft agreement in 2013 for the construction of an oil pipeline to
deliver oil from Iraq. The pipeline would extend over a total of 1300 km, 900 km of which are in Jordan.
The total cost of construction is estimated to be around USD 8 billion (USD 5.6 billion for the Jordanian
part). By the end of 2020, the tender process for the project implementation should be completed and
construction would start soon after (MEMR, homepage) [7,44].
With the aim of increasing the competitiveness of domestic industry, eorts have been undertaken
to encourage industries to switch to gas in substitution of various more expensive fuels. Incentives
have been set up for this purpose in the form of a tax exemption for the first three years after the switch
to natural gas, among others [65].
Concerning the aim of diversifying the sources of natural gas import to reduce vulnerability
and cost, the authorities plan to progressively reduce shipped imports from the terminal in Aqaba.
Since September 2018, imports from Egypt through the Arab Pipeline have resumed [
66
]. In 2016,
Jordan signed a 15-year agreement with Noble Energy to import natural gas from Israel through a
pipeline located in the north of the country. While this was seen in Jordan as a controversial agreement,
as it would strengthen relations and trade with Israel and rely on Israel for part of Jordan’s energy
security—confirmed by the position of the Jordanian Parliament, which voted against it—the project
has gone ahead [
67
69
]. In fact, operations started in 2020 and Noble Energy is expected to cover 40%
Sustainability 2020,12, 10465 20 of 25
of total gas needs for Jordan [
70
]. Israel and Egypt are thus expected to become the main suppliers of
natural gas.
The electricity sector has also progressively opened to market competition. A first restructuring of
the electricity sector was achieved in 1996, when the National Electric Power Company (NEPCO) was
established and nominated as successor of the Jordan Electricity Authority. In 1997, NEPCO was split
into three dierent independent companies responsible for generation, transmission, and distribution
activities. In 2014, the Energy and Minerals Regulatory Commission was established to regulate and
supervise the whole energy and electricity sector in a unified framework. According to Law No. 17
for the year 2014, the commission is the legal successor of the Electricity Regulatory Commission,
of the Jordan Nuclear Regulatory Commission, and of the Natural Resources Authority. After
this restructuring, the Ministry of Energy and Mineral Resources and the Energy and Minerals
Regulatory Commission are the only authorities responsible for the energy and mineral resources sector).
The commission currently licenses nine electricity-generating companies. Construction, operation,
and maintenance of the transmission system within the country are the exclusive responsibility of
NEPCO, which is a public shareholding company fully owned by the state. Distribution is operated
via three further shareholding companies: Jordan Electric Power Company—JEPCO, Irbid District
Distribution Company—IDECO, and Electricity Distribution Company—EDCO.
The diculties of the electricity sector essentially reflect as losses for state-owned NEPCO. As a
result of increased and progressive electricity taris, cheaper import, and decrease in oil prices, NEPCO
has managed to reduce (but not to eliminate) its operational losses [
71
]. Since 2017, electricity bills have
encompassed an additional fee to be added in adjustment to eventual oil price increases. In general,
reforming the electricity sector to make it more sustainable and financially viable, while considering
the social cost of shifting the burden of high generation costs to the final customers, is an issue that
needs to be addressed.
The interviewees were unanimously convinced of the need to reform the electricity sector, set more
ambitious targets for the share of renewable energy, and review regulations to address the existing
bureaucratic challenges. In this regard, interviewees suggested that a priority would be to review the
monopolistic role of state-owned NEPCO. The argument is that given its current role, NEPCO sees
renewable energy as a threat to its revenues. Quoting one of the interviewees, this fear is aggravated
for NEPCO by “being stuck in take-or-pay contracts,” which implies a systematic excess of electricity
generation and waste in Jordan.
The analysis of the Jordanian energy sector has highlighted that Jordan relies on a conventional
energy mix, mostly based on (imported) crude oil and natural gas. Increasing international prices,
regional instability, and sustained growth of energy demand point to the urgency of formulating a new
vision for the energy sector.
The regional developments of the last few years, with the Iraq War in 2003 and the disruption of the
gas supply from Egypt, reveal that the reliance of imported sources of energy increases the vulnerability
of the country to external events and jeopardizes its economic growth perspectives. As such, energy
security is challenging also in regard to geopolitical considerations, given the existing tensions and
conflicts among and within the neighboring countries. Considering the excellent conditions for the
exploitation of renewable energy, mostly in the form of solar and wind, the country has the potential to
exploit existing technological possibilities towards a green energy mix, which would bring together
technological and environmental aspects of more sustainable energy security.
The experts interviewed for this study were also coherent in highlighting the need to move Jordan
towards a more sustainable energy sector. Interestingly, despite the non-availability of conventional
energy sources, interviewees signaled the potential of Jordan as an energy producer. The interviewed
experts shared a vision to drive sustainable energy policy in Jordan, in which renewable energy makes
for the big bulk of energy supply. Being located in the sun belt, endowed with appropriate wind speed,
and having large desert area, the country has undoubtedly the right conditions for that. The remaining
part of the energy mix should consist of conventional energy sources, such as domestically extracted
Sustainability 2020,12, 10465 21 of 25
fuel from oil shales, to generate employment, reduce import dependency and imported clean natural
gas. This vision should go hand in hand, according to the experts, with the progressive electrification
of the economy.
The interviewees were again consistent in highlighting technical challenges to the transition,
due to the need to upscale the infrastructure to enable the integration of non-conventional energy
sources into the national electricity grid (green corridor), and economic challenges, in the sense of the
large investments needed, which would need increased participation by private companies. The small
size of the domestic market seems to be one of the factors discouraging investment. The regional
integration of electricity grids would help in overcoming this issue. The interviewees highlighted
that this entails modernized infrastructure at the regional level to facilitate the collaboration and
connection between Jordan and other countries in the region and beyond (especially that Jordan
be connected via electricity network with so many countries), which should not be confused with
local infrastructure modernization, the need to raise sucient funding from international and local
institutions, and the importance of a strong political arrangements and coordination that would
foster or hamper development in this regard, which need to be considered by policy makers at the
highest level.
There was a further substantial consensus among the interviewed experts about weak governance
being the most important factor truly hampering the transition to a more sustainable energy sector.
Some experts spoke, in addition to weak governance, of a “lack of enabling environment,” “bureaucratic
thinking,” and a “lack of implementation capability.” Quoting an interviewee, “for long term strategies,
you need to be sure that what you start will be further implemented by future governments.” This is
echoed by a further expert, stating that, “there is much speaking of strategies, but there is no
real implementation in place.” Weak governance thus hampers the implementation of strategies,
which would also require coordination and trust among stakeholders [
72
]. According another
interviewee, “institutions are there, but they do not really coordinate. Coordination is weak and there
are dierent perspectives. Every entity has its own interests and targets, since in the end, each one
wants to present a better balance sheet.” Some interviewees even alluded to the lack of trust between
institutional stakeholders, pointing to the lack of a real exchange of information between dierent
governmental agencies and authorities.
This lack of coordination and trust between the energy sector and related sectors’ stakeholders is
proof of the weak governance and a result of the missing exploitation of the natural synergies between
these sectors. The interviewees were all convinced of the necessity to strengthen the institutional
framework and formulate a comprehensive strategy to address the water–energy nexus, but also to
address synergies with the agricultural and transportation sectors. Based on the failure of top-down
approaches to solve natural resources conflicts [
72
], a participatory approach involving all stakeholders
would be mostly needed. Weak governance typically amplifies the bargaining power of vested
interests [
73
] and, in the case of Jordan’s energy sector, seems to strengthen resistance to change. It is
interesting that all of the sampled experts commented on the prominent role of NEPCO in hindering
the transformation towards a more sustainable and environmentally friendly electricity sector.
The water sector is an important electricity consumer in Jordan and it should therefore participate
in the formulation of a comprehensive energy and energy conservation strategy. The systematic
implementation of small-scale renewable energy projects, including solar, water, and hydropower in
conjunction with dams, water pumping stations, and water treatment plants could be one of the first
and most promising steps towards addressing the water–energy nexus.
With almost half of the energy being used for transportation, a round table on how to address the
transport–energy issue would be a further priority. In this regard, interviewees shared the vision of
incentivizing the electrification of transport, which could also fit well into the auspicated renewable
energy ambition of the country. Interviewees highlighted that public transportation and more ecient
and environmentally friendly goods transport would be needed, too (e.g., e-cars). Interviewees were,
however, aware that addressing the complex issue goes beyond mere infrastructure development. It also
Sustainability 2020,12, 10465 22 of 25
needs to take into consideration the characteristics of the Jordanian economy, with the predominance
of micro, small, and medium enterprises, as well as socio-economic aspects, the first being the large
share of the workforce employed by the transportation sector. In 2019, the transportation sector
employed 5% of the workforce. Therefore, it would be crucial to strike a balance when modernizing
the transportation system, creating the infrastructure for a more ecient and green transportation of
persons and goods while taking into consideration the repercussions of new equilibria on the economy
as a whole. Again, a participatory process would be needed.
7. Conclusions
Despite the favorable conditions for solar and wind, Jordan’s energy mix is still dominated
by imported fossil fuels and natural gas. As such, the country’s energy security is vulnerable to
international and regional developments, as well as to fluctuations in energy prices. Redefining
strategies towards a more sustainable energy sector is at the top of the political agenda in Jordan
and the authorities have been envisioning alternative options, but progress has been moderate so far.
With this background in mind, this study aimed at identifying the main challenges and opportunities
towards more sustainable energy security in Jordan and at validating them by means of interviews
with Jordanian policy makers and key energy experts. The analysis has revealed that to ensure the
transition to a sustainable energy sector, it is necessary to reflect in a synergic manner both energy
demand and supply. Concerning energy demand, the priority should be dedicated to improving energy
eciency and optimizing energy demand management, starting with transportation (which alone
deploys almost half of total energy consumption), the water sector (where the potential for energy
conservation is evident but unexploited), and households (where incentives and awareness should
target a change in unsustainable consumption patterns). Concerning energy supply, the analysis has
confirmed the need to target the diversification and reduction of imports, as well as the increased
reliance on domestic sources of energy (renewables, in primis, and other non-conventional sources to
complement the mix).
All of this would require existing conflicts between stakeholders to be addressed through a more
participatory approach to reform, which could increase the consensus about reforms and strategies
and improve energy sector governance.
Author Contributions:
All authors have contributed to the conceptualization, design, methodology, data collection,
analysis, and writing of this article. All authors have read and agreed to the published version of the manuscript.
Funding:
This publication was also made possible in part through the support received by Hussam Hussein from
the Oxford Martin School Programme on Transboundary Resource Management, University of Oxford. The views
expressed in this paper are the sole responsibility of the authors.
Acknowledgments:
The authors are grateful to Michael Gilmont (University of Oxford), Gokhan Cuceloglu
(University of Oxford), and Raya A. Al-Masri (University of Surrey) for their constructive feedback on previous
drafts of this article.
Conflicts of Interest: The authors declare no conflict of interest.
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... Also, wind turbines can be used to harness energy from passing vehicles, specifically in areas with continuous winds, and this will improve the energy generally used by highways (Gielen et al., 2019). (Sandri et al., 2020). Based on the analysed results of the study, it can be concluded that the integration of renewable energy technologies and the implementation of VE principles will not only have a positive impact on environmental outcomes by decreasing the consumption of fossil fuel sources but will also be aimed at creating an additional cost advantage for Jordan's highway networks (Figure 1.2) under the condition of balancing the requirements of energy security for the country (Ayyad et al., 2022). ...
... The country also depends on imported oil and gas to meet its energy demands; hence, it faces estimated energy costs and is susceptible to global energy market fluctuations. This dependency also entails a high level of carbon emissions and environmental pollution, to the extent of worsening environmental vices in the country (Sandri et al., 2020). ...
... The country's National Energy Strategy defines objectives regarding renewable energy sharing and energy conservation, thus offering a vision for future energy development. In addition, feed-in tariffs on renewable energy, tax exemptions, and financial support are available to implement renewable energy projects within Jordan (Sandri et al., 2020). ...
Thesis
Full-text available
The application of value engineering in reducing energy costs for highway networks through the implementation of renewable energy management applications in Jordan contributes to the country’s enormous potential for renewable energy. The objective of this research is to study the potential of utilising clean and affordable solar energy in Jordanian highway infrastructure as well as the country’s future sustainability objectives. The economic impacts related to the integration of RE into highways and the true role played by VE in achieving the most suitable and beneficial system are also discussed in this study. In this study, qualitative as well as quantitative data were collected as the research utilised a mixed-methods approach. Self-completed questionnaires and semi-structured interviews were conducted with key stakeholders: governing bodies, civil engineers, renewable energy specialists, and VE practitioners. These participants provided information and views about current energy use, issues, and attitudes towards RE in the Jordan highway networks. The findings indicate that out of the energy resource consumption in highway networks, 77.33% uses fossil fuel energy, while solar energy consumes 17.38% and wind energy only 0.53%. This research established that fossil fuels are still prevalent in the provision of energy for Jordan’s highways, which leads to high operational costs and pollution of the environment. This study shows that solar power is the most suitable renewable energy source for developing highway networks as a result of the solar resource potential. There is potential in wind energy, especially when the speed of the wind is high. According to the results, 42.86% of the respondents expect energy cost savings to be in the region of between 20-30% while 22.45% expect them to be between 10-20%. This has implications that the cost optimality of renewable energy technologies within highway networks in Jordan could be improved, thus enhancing the economic viability of such projects. The results provide a good positive sentiment towards the integration of Solar and wind energy for highway networks, with 68.17% of the sample viewing them as very viable or viable. This approach contributes to the overall proposition that renewable energy sources can be effectively incorporated into the available infrastructure to lower energy expenses and increase sustainability levels. The largest potential advantage was the cost savings on energy (24.43%), along with the decreased CO2 emissions (22.30%) and improved energy security (19.18%). These advantages fit the goals of this study, which include minimising operating costs and supporting environmental awareness in highway systems. In conclusion, Jordan’s highway systems can integrate renewable energy sources, thereby reducing energy costs and carbon footprint. This sustainable solution, which is based on value engineering principles, contributes to the global energy transition and enhances the sustainability and resilience.
... Also, wind turbines can be used to harness energy from passing vehicles, specifically in areas with continuous winds, and this will improve the energy generally used by highways (Gielen et al., 2019). (Sandri et al., 2020). Based on the analysed results of the study, it can be concluded that the integration of renewable energy technologies and the implementation of VE principles will not only have a positive impact on environmental outcomes by decreasing the consumption of fossil fuel sources but will also be aimed at creating an additional cost advantage for Jordan's highway networks (Figure 1.2) under the condition of balancing the requirements of energy security for the country (Ayyad et al., 2022). ...
... The country also depends on imported oil and gas to meet its energy demands; hence, it faces estimated energy costs and is susceptible to global energy market fluctuations. This dependency also entails a high level of carbon emissions and environmental pollution, to the extent of worsening environmental vices in the country (Sandri et al., 2020). ...
... The country's National Energy Strategy defines objectives regarding renewable energy sharing and energy conservation, thus offering a vision for future energy development. In addition, feed-in tariffs on renewable energy, tax exemptions, and financial support are available to implement renewable energy projects within Jordan (Sandri et al., 2020). ...
Thesis
Full-text available
The integration of renewable energy technologies in green buildings has become an essential strategy for achieving environmental sustainability and economic growth. This study investigates the economic impact of integrating renewable energy technologies, such as solar, and wind in green buildings in Jordan. The primary problem addressed is the country's growing energy demands, reliance on fossil fuels, and the environmental and economic challenges associated with this dependency. This study is significant as it aligns with Jordan's 2030 Sustainable Development Strategy, aiming to reduce carbon emissions and enhance economic sustainability. The methodology involved a case study approach focusing on renewable energy applications in green buildings in Jordan, analyzing their economic benefits, carbon reduction, and energy savings. Key results indicate that the adoption of renewable energy technologies led to a significant reduction in energy costs (up to 30%) and carbon emissions (by approximately 40%). Furthermore, buildings equipped with photovoltaic solar panels experienced a 20% reduction in operational energy costs, and an average decrease of 50% in CO2 emissions annually. The study also highlights the economic benefits of job creation in the renewable energy sector, with an estimated increase in local employment by 10%. Additionally, a payback period of 5–7 years was observed for investments in renewable energy infrastructure, with long-term savings surpassing initial investment costs after the payback period. From the discussion, while renewable energy adoption presents economic and environmental benefits, challenges such as high initial costs, technical barriers, and policy support gaps remain. Looking forward, there is a strong potential for scaling up renewable energy projects in Jordan, with continued policy development, public awareness, and international collaboration playing a key role in the successful transition to sustainable energy practices.
... Between 2015 and 2030, Jordan developed several energy strategies focused on enhancing energy security, increasing domestic production, exploring alternative sources, and investing in renewable energy and efficiency. These efforts aim to reduce reliance on imported fossil fuels and diversify energy sources to mitigate price volatility and external risks [3]. Transitioning to a 100% renewable energy system has been deemed technically feasible and economically viable [21]. ...
... Energy security is currently Jordan's most discussed policy issue since it's the key driver of economic [2,3] and social development [4] in the country. Rising living standards and faster economic growth have elevated energy security to the top of policymakers' divided as follows: the second section lists the relevant literature on economic growth, energy, and climate change. ...
Article
Full-text available
Jordan faces significant challenges related to energy security due to its limited natural resources and reliance on energy imports, which meet over 90% of its energy needs. The adoption of renewable energy (RE) technologies is viewed as a crucial step in reducing dependence on fossil fuels, enhancing energy security, and addressing environmental concerns such as CO2 emissions. Jordan has set ambitious goals to reduce greenhouse gas emissions by 30% by 2030 through RE and energy efficiency initiatives, in line with the global push to combat climate change. Using the Toda-Yamamoto causality test, this study examines the relationship between economic growth, energy consumption, and greenhouse gas emissions in Jordan from 1980 to 2021. The results indicate a bidirectional causality between energy consumption and economic growth, highlighting the energy-dependent nature of Jordan’s economy. Additionally, greenhouse gas emissions were found to cause economic growth, reflecting the role of emissions-intensive industries in the country’s development. The study also shows that economic growth and greenhouse gas emissions jointly influence energy consumption, while energy consumption does not directly drive emissions. These findings emphasize the need for Jordan to adapt and accelerate its energy transition. By investing in renewable energy and improving energy efficiency, Jordan can reduce its contributions to climate change while enhancing energy security and fostering sustainable economic growth.
... The country is prioritising the development of domestic renewable resources to reduce its heavy dependence on imported fossil fuels. This shift is designed to improve energy security, cut greenhouse gas emissions, and address water scarcity, positioning Jordan as a key player in the Middle East's sustainable energy landscape (Ghoniem et al. 2023;Sandri, Hussein, and Alshyab 2020). Accordingly, Jordan's government is investing heavily in solar and wind energy to integrate these resources into the national grid. ...
Article
Full-text available
Jordan faces growing energy costs and the depletion of fossil fuels due to its entire reliance on imported oil. To address this challenge, this study proposes a hybrid wind-photovoltaic (wind-PV) system to power a village in Ras Muneef, Ajloun, Jordan. The study outlines a methodology for sizing and optimising the hybrid system to meet seasonal load demands, using the wind-to-PV ratio (RW-PV) to balance wind turbines and PV panels for optimal energy generation. Seasonal load simulations and weather data were incorporated to develop sizing curves, identifying configurations that meet energy needs year-round. Simulations were conducted using Matlab Simulink, integrating meteorological data and load profiles for comprehensive performance analysis. The system, designed for two days of autonomy, includes 20,350 PV panels (300 Wp each) and 81 wind turbines (100 kW each). Results indicate that wind power is more effective during winter, while PV panels perform better in summer. The system achieves a production cost of $0.112 per kWh, with zero loss of power supply probability, two days of battery autonomy, and a Wind/PV ratio of 2. This system generates 25.8-45.3 million kWh of clean energy annually and mitigates up to 565,731 metric tons of CO 2 over lifetime. ARTICLE HISTORY
... The high energy-demanding SWRO desalination and water conveyance in Jordan pose urgent challenges to the country's energy security, primarily because of its significant reliance on energy imports based on the lack of fossil fuel sources [84,85]. However, Jordan has much land available and robust solar radiation levels that provide an excellent opportunity for solar energy harvesting, thereby reducing its vulnerability and supporting the set emission reduction targets in the energy sector [86]. ...
... Protecting energy systems from cyber threats is a critical part of the security strategy of military facilities, as cyber-attacks can lead to a complete power outage and disruption of critical infrastructures (Sandri et al., 2020). Military facilities are implementing multi-level security systems, including encryption, continuous monitoring of activity, and automatic detection of suspicious activity using artificial intelligence. ...
Article
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The purpose of this study was to analyse the potential of innovative solutions for optimising energy processes and strengthening security systems at military facilities. The study analysed scientific papers, reports, and publications on energy and cyber technologies, using a comparative analysis of approaches to the implementation of renewable energy sources, intelligent control systems and automated technologies at military facilities. The findings confirmed that renewable energy sources (solar panels, wind turbines) reduce dependence on fossil fuels and increase the autonomy of bases. Intelligent energy management systems optimise costs and increase resource efficiency. Microgrids were found to provide a stable power supply even in case of outages. Protecting critical infrastructure using multi-level cybersecurity systems and artificial intelligence significantly reduces the risk of attacks. It was emphasised that microgrids reduce the risk of power outages during crises or cyberattacks, allowing for a quick switch to backup energy sources. Innovative insulation materials and energy-efficient equipment reduce operating costs and improve working conditions for staff. Cyber defence of critical energy systems at military facilities includes multi-level protocols, monitoring of network activity and encryption technologies to prevent cyber-attacks. The use of artificial intelligence to analyse threats allows for prompt detection and response to anomalies. It was proved that innovative technologies are key to ensuring energy independence, security, and efficiency of military facilities. The findings of this study can be used to optimise energy consumption and increase the level of autonomy of military bases, which will ensure the stability of the facilities’ operation even in difficult conditions or in cases of lack of access to external energy sources
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Focusing on the urban landscape of Amman, Jordan, this paper examines the governance challenges of renewable energy transition as it intersects with heterogeneous energy infrastructures and diverse thermal practices. Solar thermal water heaters, which are a small-scale form of distributed thermal power assembled from glass, bronze, and steel, are a key part of Amman’s urban thermal landscape. Drawing on ethnographic engagement with Amman’s solar thermal industry, this article reveals how the labor of solar thermal maintenance and repair iterates an alternative urban energy configuration that reshapes the built environment and the trajectory of energy transition. This alternative energy configuration illuminates the pivotal role of labor in shaping energy transition pathways, and the critical ways that heterogenous energy configurations both reproduce and challenge broader political economic relations. In dialogue with recent scholarship on the incremental, processual, and propositional dimensions of heterogeneous energy infrastructures, this paper brings critical focus to ‘unruly’ technologies and the labor of thermal maintenance and repair as key arenas of prefigurative politics that can inform broader research on thermal sustainability and the governance of global renewable energy transitions.
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Purpose This study examines the ethical challenges faced by Jordanian enterprises in implementing sustainable business models (SBMs) aligned with Sustainable Development Goal 12 (SDG 12) – Responsible Consumption and Production. It focuses on how economic constraints, cultural influences and sustainability awareness shape these challenges in an emerging market context. Design/methodology/approach A quantitative research approach was used, involving a survey of 496 business leaders across various sectors in Jordan. The data were analyzed using structural equation modeling (SEM) with SmartPLS to assess the relationships among economic constraints, cultural factors, sustainability awareness and ethical challenges in SBMs. Findings The findings indicate that significant ethical challenges arise from Jordan’s economic constraints, such as resource scarcity and limited access to finance, which complicate the alignment with SDG 12. Cultural values, particularly the emphasis on community and social cohesion, play a crucial role in ethical decision-making. However, the lack of sustainability education and awareness intensifies these challenges, especially among small and medium enterprises (SMEs). Practical implications The study highlights the need for policymakers to provide financial support and incentives to promote sustainable practices. Business leaders are encouraged to integrate cultural values into ethical decision-making and to invest in sustainability education to mitigate these challenges. Originality/value This research provides new insights into the ethical dimensions of SBMs in emerging markets, offering practical recommendations for enhancing sustainability in resource-constrained environments like Jordan.
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This study aimed to contribute to the limited literature on energy efficiency (EE) retrofitting of old buildings, focusing on urban and low-income districts. The case study considered a small zone consisting of approximately 80 old family dwellings in Amman city. The conducted field survey was designed to collect basic data about occupants’ demographics, building conditions, energy consumption, awareness, and willingness to invest in EE measures. A large fraction of residents confirmed that no- or low-cost measures, such as switching off lights and bulb replacement, are already implemented. However, most of them had not even considered investing in EE measures to improve the thermal performance of dwelling envelopes. Equally important, none of the interviewed residents indicated that they would consider replacing old inefficient household appliances in the near future or acquiring new highly efficient machines unless there is direct financial aid or a grant program supported by the government or local authorities to enhance EE. The small fraction of people who showed some understanding of EE remain reluctant to invest in costly items, such as thermal insulation of external walls or replacing windows, most likely due to their very limited financial capability. It is recommended to introduce a tailored scheme to cause a positive shift in current energy consumption behaviors toward more efficient practices, leading to greenhouse gas (GHG) reductions in old residential buildings. This could only be achieved by creating and allocating a special fund to assist poor families in improving EE in their dwellings. Further investigations are highly needed to explore various subjects, including occupant psychological behaviors and responses related to energy use and EE in the residential sector.
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The water and energy sectors are fundamentally linked. In Jordan, especially in the face of a changing climate, the water–energy nexus holds a number of challenges but also opportunities. A key point in exploring synergies is the identification of such, as well as the communication between the water and energy sectors. This paper promotes the importance of using a co-creative approach to help resolve opposing views and assessing stakeholder preferences in the context of the water–energy nexus in Jordan. A computer-supported, co-creative approach was used to evaluate stakeholder preferences and opinions on criteria and future scenarios for the energy and water sector in Jordan, identifying common difficulties and possibilities. The criteria describe socio-ecological aspects as well as techno-economic aspects for both systems. Discussing a set of preliminary scenarios describing possible energy and water futures ranked under a set of sector relevant criteria, a consensus between both stakeholder groups is reached. The robustness of results is determined, using a second-order probabilistic approach. The results indicate that there are no fundamental conflicts between the energy and water stakeholder groups. Applying a participatory multi-stakeholder, multi-criteria framework to the energy-water nexus case in Jordan promotes a clear understanding of where different stakeholder groups stand. This understanding and agreement can form the basis of a joint water–energy nexus policy used in the continued negotiation process between and within national and international cooperation, as well as promoting and developing acceptable suggestions to solve complex problems for both sectors.
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Jordan imports 94% of its oil and gas (fossil fuels) to meet its energy needs, leaving it vulnerable to variations in fuel price. Jordan's demand for energy is growing at a rate of 3% annually. In response, the government set a target of obtaining 10% of its energy needs from renewable energy resources by increasing electricity generation share from the present 1.13 GW-1.8 GW by 2020. The sources of generation include abundant solar, wind, and biomass resources, which also enhance economic growth and reduce pollution. This article analyzed the current energy situation in Jordan and assessed the available renewable energy resources potential for direct investments. The actual contribution of clean energy is still moderate at roughly 7% of total energy demand, despite the efforts placed on the development of alternative energy resources. The national electricity supply and demand are presented, and the government initiatives, financial incentives, and tax exemptions to encourage investments in clean energy are also discussed. The renewable energy policy generates future opportunities for investors with an ambitious $20 billion energy plans as does its strategy to improve energy efficiency. This article will benefit interested clean energy investors and developers and plans for 2,000 MW investments in wind and solar energy are ready for bidders. Such an endeavor and model will also benefit neighboring countries in the region.
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This paper presents a study which analyzes the energy security in Jordan in light of several regional conflicts for the period (1960-2011). We apply an event study method to assess the direct and indirect effects of six regional conflicts on the energy sector in Jordan based on a proposed energy security framework developed from an infusion of frameworks found in literature. The conflicts include the 6 days war, Lebanese civil war, Iraq-Iran war, First Gulf war, Iraq Invasion, and Egyptian revolution. It was found that the energy sector in Jordan is too sensitive to the regional conflicts due to the lack of diversity of energy suppliers throughout the period of study. Other aspects taken into consideration included strategic storage adequacy, supply chain protection, economic integration, energy demands and prices. The study concludes with a proposed energy policy aiming the reduction of those effects.
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Background: The energy sector plays an important role in the economic growth in Jordan due to the fact that Jordan imports around 97% of its needs from primary energy. The purpose of this study is to explore the pattern of electricity consumption and energy loss to highlight the strengths and weakness of energy efficiency in the context of the urban sustainability of Amman City in Jordan. Methods: The design of sustainable urban development is based on the urban interdependencies approach, which incorporates the stakeholders to identify and pursue synergies between multiple sectors. This approach includes the identification of the functional sectors, which are related to institutional and behavioral levels in the society, raising the level of institutional performance and improving the quality of urban services. The spatial statistical analysis approach and GIS applied to analyze the consumption pattern of electrical power in the study area. Results and conclusion: There was a considerable increase in the peak domestic consumption, as the peak load reached 3320 MW in 2017 with an annual increment rate of 4.9%. Regarding energy efficiency, the value of total electrical energy losses reached 13% in 2017; around 90% of this loss occurred in the electrical distribution stage. Geographical distribution of the household electrical power shows that the east and middle parts of Amman have low consumption levels compared to the west residential parts. The energy consumption pattern has an inverse relation with the population distribution, family size, and building characteristics in the city. This is clearly identified by addressing the downtown region that has the lowest energy consumption and the highest-density population, while the western part has the highest energy consumption and low-population density. These variations can be referred to as differences in social and economic behaviors of inhabitants in both high-density and low-density population areas. This analysis reflects the influence of several factors that should be taken into account in energy sustainability strategies. Energy consumption is influenced by the characteristics of households which include building size, household income, total energy cost, and building characteristics (e.g., building design, age, location, and using thermal insulation system for buildings). Keywords: Energy consumption, Sustainability, Amman, Urban pattern, GIS
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The Water-Energy Nexus (WEN) is broadly defined as an integrated paradigm for efficiently managing water and energy resources. While several studies have investigated WEN from a resource efficiency perspective, little research has focused on governance and policy integration aspects. In this study, the level of understanding of WEN in Jordan is examined for the first time from the perspective of governance and public policy development. We explored institutional and policy integration gaps between the two sectors by mapping the water and energy policies in Jordan, and holding semi-structured interviews with the key policymakers and stakeholders. While the awareness of the nexus paradigm by officials is increasing, the level of knowledge about WEN varies across the sectors. As water and energy policies are formulated independently, there are no formal mechanisms for collaboration in the policy formulation and implementation processes, nor formal mechanisms for collaboration to guarantee policy effectiveness. Factors such as acknowledging shared understandings between different actors, setting flexible policy boundaries, and introducing specific capacity building plans at the institutional level are identified as critical to enable better WEN governance. Proposals from this study recommend adopting collaboration arrangements tailored to each sector’s needs and existing structures, and supported by effective enforcements to ensure an incremental and steady change toward inter-institutional coordination. A ‘multi-layer approach’ involving appropriate legal and policy frameworks, and adequate human and financial resources; essentially from private sector is suggested. Proposals from this study can help policymakers to effectively plan for joint water-energy investments for a more sustainable future.
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Renewable Energy Volume 147, Part 1, March 2020, Pages 423-436 Jordan toward a 100% renewable electricity system Author links open overlay panelSuhilKiwanElyasaAl-Gharibeh Show more https://doi.org/10.1016/j.renene.2019.09.004 Get rights and content Highlights • LEAP, EnergyPlan and SAM software can be integrated to conduct a more holistic energy plan. • A 100% renewable electricity scenario competes conventional scenarios economically in case of Jordan. • 10.6 GW CSP, 4.5 GW wind and 25 GW PV are able to cover Jordan's electricity demand in 2050. • Around 1 B$ will annually be invested to expand Jordan's electricity sector in the renewable energy scenario. • Storage capacity of 90 GWh is needed for the system dispatchability. Abstract Jordan has faced two major energy crises during the past two decades; the disruption of Iraqi's oil in 2003 and Egyptian's natural gas in 2011. Restructuring Jordan's electricity supply system became a national necessity to secure sustainable electricity at affordable prices. In this work, a 100% renewable electricity supply scenario is constructed and compared with three other scenarios, which contain a mix of natural gas, nuclear, oil shale and renewable energy, in terms of techno-economic feasibility, security of supply, and carbon dioxide emissions. All the proposed scenarios were found to be economically feasible. The cumulative discount production costs, over the coming thirty five years under different fuel prices assumption, is less than 80 billion dollars (2010 dollar) for all proposed scenario. In the 100% renewable electricity scenario, the country needs around 10.6 GW of concentrated solar power, 4.5 GW of wind, and 25 GW of photovoltaic to meet the demand in the year 2050 which are achievable in terms of energy resources. The dispatchability problem of the renewable scenario was solved by proposing a 90 GWh storage system (43 CSP plants, 250 MW each, 8 h storage). Furthermore, import dependency and CO2 emission will entirely disappear by 2050 in the renewable scenario.