ArticlePDF Available

Abstract and Figures

Renewable energy is a widely used term that describes certain types of energy production. In politics, business and academia, renewable energy is often framed as the key solution to the global climate challenge. We, however, argue that the concept of renewable energy is problematic and should be abandoned in favor of more unambiguous conceptualization. Building on the theoretical literature on framing and based on document analysis, case examples and statistical data, we discuss how renewable energy is framed and has come to be a central energy policy concept and analyze how its use has affected the way energy policy is debated and conducted. We demonstrate the key problems the concept of renewable energy has in terms of sustainability, incoherence, policy impacts, bait-and-switch tactics and generally misleading nature. After analyzing these issues, we discuss alternative conceptualizations and present our model of categorizing energy production according to carbon content and combustion. The paper does not intend to criticize or promote any specific form of energy production, but instead discusses the role of institutional conceptualization in energy policy.
Content may be subject to copyright.
Abandoning the Concept of Renewable Energy
Atte Harjanne [1, 2], Janne M. Korhonen [3]
[1] Aalto University School of Business
[2] Finnish Meteorological Institute
[3] Turku School of Economics
Corresponding author: Atte Harjanne /
Published as
Harjanne, A. & Korhonen, J. M. (2019). Abandoning the concept of renewable energy
Energy Policy 127, 330-340.
Renewable energy is a widely used term that describes certain types of energy production. In politics,
business and academia, renewable energy is often framed as the key solution to the global climate
challenge. We, however, argue that the concept of renewable energy is problematic and should be
abandoned in favor of more unambiguous conceptualization.
Building on the theoretical literature on framing and based on document analysis, case examples and
statistical data, we discuss how renewable energy is framed and has come to be a central energy policy
concept and analyze how its use has affected the way energy policy is debated and conducted. We
demonstrate five major issues with the concept of renewable energy: i) renewability does not guarantee
sustainability; ii) renewables encompass very different forms of energy, with very different policy
challenges; iii) policies based on renewable energy have mixed results; iv) the concept of renewable
energy enables environmentally harmful bait-and-switch; and v) the whole idea of renewable energy is
misleading. After analyzing these issues, we discuss alternative conceptualizations and present our
model of categorizing energy production according to carbon content and combustion.
The paper does not intend to criticize or promote any specific form of energy production, but instead
discusses the role of institutional conceptualization in energy policy.
-Renewable energy (RE) is a widely shared concept that influences energy policy worldwide
-The concept of RE is problematic in many ways, yet these problems are often ignored
-The umbrella of RE seems to enable questionable bait-and-switch tactics
-Alternative conceptualization of energy could support more effective climate policy
Key words
Renewable energy, energy policy, climate change, institutional theory, framing
The authors would like to thank Ben Heard and Nina Granqvist for their invaluable comments during the writing
This work was supported by the Jenny and Antti Wihuri Foundation.
Declaration of interest
Declarations of interest: none
1. Introduction
The limits of my language mean the limits of my world.” wrote Ludwig Wittgenstein. Today, the
limits of our language limit our efforts to combat climate change. Shared meanings and concepts are
the building blocks used to debate and create policies. Problems and limitations within those meanings
and concepts are reflected in the policies and their results. Imprecise language can lead to ambiguity in
energy policy (Littlefield 2013; Evensen et al. 2014), and ambiguity may be a luxury we can no longer
Mitigating climate change without sentencing the poor globally to perpetual poverty is the prime
challenge of energy policy today. Our civilization relies heavily on fossil energy, with around 80
percent of primary energy coming from fossil fuels (IEA 2017a). Their combustion is contributing to a
rapid increase in the average temperature of our planet. Continued large-scale exploitation of fossil
fuels creates grave risks for human civilization, yet sustaining and extending a prosperous civilization
requires a certain level of energy supply.
One of the most commonly touted solutions to this dilemma is renewable energy. Instead of relying on
depleting stocks of buried energy relics, the narrative behind the renewable energy solution states that
we should power our societies by harnessing renewable natural energy flows. Given the increasing
awareness of climate change, the concept of renewable energy has become such a powerful and
universal “focusing device” (Rosenberg 1976) that it has been adopted in climate and energy strategies
and has been guiding policy worldwide (IEA 2018a).
The benefits, challenges and economic feasibility of fully renewable energy systems have been debated
in many earlier papers (see, e.g. Jacobson and Delucchi 2011; Trainer 2012; Brook and Bradshaw
2014; Heard et al. 2017). Our aim instead is to problematize the whole concept of renewable energy as
it exists today in the field of energy policy. However, the target of the problematization is not
renewable energy generation or any specific policy; rather, we argue that the problem is in the
conceptual framing of energy sources as either renewable or non-renewable.
This paper is anchored in institutional theory. We answer the call made by Ansari et al. (2011) on how
social scientists can contribute to managing climate change by enhancing its vocabulary and providing
useful explanations; or, as in our case, by pointing out the problems with the existing vocabulary.
Institutional theory offers useful frameworks for studying energy policy and the transformation
currently taking place in global energy use and production. It focuses on the emergence, development
and impact of institutions resilient social structures such as organizations, norms or rules (Scott
2008). Institutions emerge and are formed around socially constructed, shared meanings (DiMaggio
and Powell 1983; Scott 1995; Thornton and Ocasio 1999). A popular level of institutional analysis is
the level of organizational fields (DiMaggio and Powell 1983; Scott 1995) that consist of actors in a
recognized area of institutional life and follow certain institutional logics (Thornton and Ocasio 1999).
Grand challenges such as climate change are complex, uncertain and evaluative problems of major
societal significance (Ferraro et al. 2015), and as such are typically not an issue at the level of
individual organizations, but are encountered in the field (Grodal and O’Mahony 2017).
Framing is a process where meanings are constructed (Benford and Snow 2000). Originally introduced
by Goffman (1974), frames can be considered models of interpretation which enable the organization
of experiences and occurrences into communicable sets of shared beliefs and meanings that also guide
action (Benford and Snow 2000). Frames are thus essential for the formation and maintenance of
institutional logic as well. Frames and framing have mostly been applied in research on social
movements, where the interest typically is the role of frames in inspiring and legitimating actions and
for mobilizing resources (Benford and Snow, 2000; Granqvist and Laurila 2011). Among science and
technology studies, Rosenberg’s (1976) idea of “focusing devices” that direct research and policy
efforts towards a specific subset of technologies, sometimes at the expense of other subsets, resonates
with this idea of a framing process. The nature of framing also includes drawing boundaries between
what is included in a shared meaning and what is not, and can result in umbrella constructs (Hirsch and
Levin 1999) that organize various theoretical elements of a field into a meaningfully combined
In this paper, we approach the concept of renewable energy as a socially constructed result of framing
in the field of energy policy. Since frames are fundamentally constructed in discursive processes
(Benford and Snow 2000) we focus our attention mainly on language and written documents, although
we briefly discuss visual discourse (see, e.g. O’Neill and Smith 2014) as well. Discourse analysis has
been widely used in studying the formation of environmental and energy policies (see, e.g. Hajer and
Versteeg 2005; Jessup 2010; Cotton et al. 2014), and the role of linguistic framing and discourse in
energy policy has been discussed in detail by Scrase and Ockwell (2010), who described how framing
may serve to sustain the continuation of existing policy positions. It should be noted that while we rely
on theory of framing, we refer to renewable energy also as a “concept”, since we believe that this term
is more familiar to most audiences.
The focus of this paper, however, is not to elaborate the theoretical foundations, but instead to employ
these concepts from organizational science to analyze the role and impact of the shared concept of
renewable energy in energy policy. In doing this, we combine both qualitative and quantitative data and
draw on material from a broad selection of public documents, statistics and academic and grey
literature. Using case examples, we first describe the shared concept of renewable energy and then
problematize it based on a synthesis of available societal, technical and economic data.
The paper is structured as follows. After the introduction we briefly outline the history of the concept
of renewable energy. In the second section we discuss the current status of the concept and in the third
its use. The fourth section goes through the main problems we identify related to the current
conceptualization of renewable energy. In the fifth section we discuss the implications of the problems
and alternative conceptualizations, before concluding the paper in the sixth section.
2. A Brief History of Renewable Energy
The history of renewable energy as a concept predates current climate awareness and mitigation
debates. This explains, to some extent, why the concept is problematic in today’s context. Therefore,
understanding the framing process and the history of the concept is useful.
In English-language scientific and technical literature, the term “renewable energy” has been used as a
contrast to exhaustible fossil fuel sources, at least since the early 1900s (Bell 1906; Clarke et al. 1909).
Interestingly, some early analyses made a distinction between “renewable” and “inexhaustible” energy
sources, referring to animal power sources and wood as “renewable” while classifying solar radiation,
wind, tidal and hydropower as “inexhaustible” instead (Clarke et al. 1909). Even then, the context for
using this term was to oppose or at least provide an alternative to society’s dependence on fossil fuels,
although the rationale was not overuse as today but predicted exhaustion. Therefore, it is not surprising
that discussions about “renewable energy” became more common during the Second World War, as
can be seen from the occurrence of the term in the digitized corpus of Google Books (Fig. 1).
Figure 1. Relative incidence of term "renewable energy" in Google Books corpus, 1900-1960, variations in capitalization
(“renewable energy”, “Renewable Energy”, etc.) included.
However, the term acquired its modern meaning and many of the current political connotations during
the energy debates of the 1970s. The counterculture and early environmental movements of the 1960s
latched on to “renewable energy” as a conceptual alternative to perceived dehumanizing,
environmentally destructive “centralized” energy sources, such as coal and nuclear power.
Because these early conflicts were instrumental in the way the entire environmental discourse was
subsequently framed, the debate between the supporters of two different “energy paths”, to borrow a
term from an enormously influential 1976 article by Amory Lovins (Lovins 1976), still influences
practically all environmental discourse today. The supporters of the “soft path”, which called for more
decentralized, small-scale energy generation, including but not limited to renewable energy sources as
we now understand the term (see also the very influential “Small is Beautiful” ideology originating
from Schumacher 1973), were, for the most part, synonymous with the early environmental activists,
whereas the “traditional” or “hard” path was presented as the status quo.
During these 1970s debates, the nascent environmental movement cemented its attitude towards
“good” and “bad” energy sources. In particular, the 1970s environmental movement abandoned the
1950s and 1960s environmental conservation movements’ acceptance of nuclear power. Earlier
generations had seen nuclear power as an environmentally benign alternative to massive hydropower
projects (see, e.g. Särkikoski 2011), but growing distrust with “establishment” science and engineering
and with large-scale, top-down, undemocratic projects caused the environmental movement at large to
reverse its hitherto lukewarm acceptance (Kirk 2001; Pearce 1991). Frustration with lack of progress in
nuclear disarmament and a perceived lack of democratic control over nuclear arsenals might have also
contributed to nuclear energy in general becoming a sort of proxy target for erstwhile anti-nuclear
weapons protesters (Weart 2012).
Irrespective of the precise social and political circumstances of the time, the battle lines were drawn: in
practically all subsequent environmental discourse, energy sources have been divided between “good”
(solar, wind, tidal, geothermal, biomass, and with some reservations hydropower), “tolerable for time
being” (small scale use of fossil fuels and peat), and “bad” – large-scale, centralized power plants, most
notably nuclear power. By and large, these divisions have prevailed ever since, although realities of
climate change have generally caused the environmental movement of today to reduce its 1980s-
era tolerance of coal, gas and peat as “bridge” fuels to be used until such time as the world is ready for
totally renewable energy system (for historical examples of this acceptance and discussion in the US
and UK, see e.g. Schumacher 1973; Lovins 1976; Pearce 1991).
As we go on to demonstrate in this paper, the problem with this forty-year old concept is that the world
of 2018 is not the same as the world of 1978. Nevertheless, the concept of renewable energy is still
routinely used in energy policy, as we discuss in the next section. Figure 2 shows how the term has
gained increasing currency steadily over the last three decades.
Figure 2. Relative occurrence of phrase "renewable energy" in Google’s corpus of digitized books 1960-2010, all
variations in capitalization included.
3. The Concept in Use
The definition of renewable energy is largely uncontested and there is broad agreement on what is
considered to be renewable energy. The International Energy Agency (IEA) defines renewable energy
as “energy derived from natural processes that are replenished at a faster rate than they are consumed”,
and mentions solar, wind, geothermal, hydro and biomass as examples of renewable energy (IEA
2018b). The European Union includes wind, solar, hydro and tidal power, geothermal energy, biofuels
and the renewable part of waste as renewable energy in its statistical accounting (Eurostat 2018a); in a
recent report, the United Nations Environment Programme follows the same logic (Frankfurt School
This consistency is atypical among popular concepts related to different grand challenges. In
comparison, the exact definitions of concepts such as sustainability (Kates et al. 2005), cleantech
(Caprotti 2012) or corporate social responsibility (Dahlsrud 2006) have been extensively researched
and interrogated with far lesser convergence of definition.
Our general claim is that renewable energy has become an important concept within the fields of
energy policy and climate change mitigation, and has a central role in driving the logics within these
fields. The popularity of the concept in itself would make it a huge effort to comprehensively map the
current use of the term. Thus we demonstrate the use and spread of the concept with the following
The European Union (EU) energy policy is an example from the international political domain of how
the concept of renewable energy has been adopted. Promoting renewable energy is one of the
cornerstones of the energy policy of the European Union. In 2009, EU put in place the so-called
Renewable Energy Directive, which mandates that by the year 2020 one-fifth of the total energy needs
within the union must come from renewable energy (EU 2009). The directive is currently being
revised, with a planned goal of reaching 27 percent share for renewable energy by 2030 (EU 2018).
Beyond the directive, EU has also developed an Energy Roadmap looking toward the year 2050
(European Commission 2011). The roadmap is not legally binding and presents five alternative
scenarios for decarbonization. Renewables play a major role, as their share of final energy consumption
is at least 55 percent in all the scenarios. The specific “High Renewable energy sources” scenario
reaches 75 percent share in total energy consumption and 97 percent share in electricity consumption.
These policies and communications show that the concept of renewable energy is essential in EU
policy and that EU is strongly committed to promoting renewable energy. It is even reasonable to claim
that for the union, renewable energy is not only a means to combat climate change, but is an end in
itself. This is highlighted by the will to set renewable target policies that overlap and are likely to
hinder the effectiveness of the EU Emissions Trading System (ETS) (OECD 2011; IETA 2015), which
is considered the cornerstone of EU’s policy to combat climate change (EU 2016).
Another example of the diffusion and power of the concept is the formation of the International
Renewable Energy Agency (IRENA). Founded in 2009, IRENA is an official United Nations (UN)
observer and has 154 member states, including the European Union (IRENA 2018). IRENA maintains
that the benefits of renewable energy are not only climate change mitigation and reduced pollution but
also increasingly economic growth, employment and energy security (see, e.g. IRENA 2016;
IRENA 2017). The existence and status of IRENA illustrate the role of renewable energy as a guiding
concept; each form of renewable energy has its own international alliance for industry actors, and these
together form the International Renewable Energy Alliance (REN Alliance), yet an intergovernmental
agency with states as members was established.
Many businesses have also committed to renewable energy. In 2017, Google stated that it is committed
to covering 100 percent of its energy needs with renewable energy (Google 2017). In practice this
means purchasing enough wind and solar electricity to account for its electricity consumption (Google
2017). Google justifies this policy both as a means of reducing its carbon footprint and reducing the
costs of energy use. Apple reports that it covers its energy needs completely with renewable energy, in
practice by producing and purchasing equivalent amounts of wind, solar, hydropower and biofuels in
relation to its facilities’ consumption (Apple 2018). This 100 % renewables achievement has a major
role in the company’s environmental reporting. Apple also seeks to increase the share of renewable
energy production and procurement of its suppliers (Apple 2018). Facebook is committed to 100
percent clean and renewable energy, but measures this according to renewable energy standards
(Facebook 2017). These American IT giants are not the only ones fixated with the concept of
renewable energy; Facebook and Apple are also members of RE100, a global business initiative of
more than 100 large businesses across the world committed to 100 percent renewable electricity
(RE100 2018).
Renewable energy is also a prominent concept in academia. A school of thought taking 100 percent
renewables as the premise for sustainable energy scenarios has been emerging, led by Jacobson and
Deluchi (see, e.g. Jacobson and Deluchi 2011; Deluchi and Jacobson 2011; Plessmann et al. 2014).
Such renewables focused studies have evoked several critical responses in energy policy literature
(Trainer 2012; Clack et al. 2017; Heard et al. 2017; Heuberger and Dowell 2018) and also generated
counters to such criticism (e.g. Brown et al. 2018). Common for all streams of the discussion is that
they typically conceptualize renewable energy as a distinct part of an energy portfolio.
4. Problems with the Concept
As described above, renewable energy is a concept that has been widely adopted across the field of
energy policy. It emerged as an alternative to fossil and nuclear energy sources, was later used in
conceptualization of an envisioned harmonious society and has now become a central conceptual
building block of energy policy theory and practice. It is a clearly defined concept, in the sense that it is
widely agreed which sources of energy are renewable and which are not. However, as we show next,
the concept as it currently exists might even be harmful to the efforts to combat climate change or
power sustainable development.
4.1 Renewable does not mean sustainable
Renewable energy is often associated strongly with sustainability. To consider whether renewable
energy is sustainable, we first need to define what we understand as sustainability. The original
definition by the Brundtland Report in 1987 defined sustainable development as development that
meets the needs of the present without compromising the ability of future generations to meet their own
needs (United Nations 1987).1 Since then, more definitions have followed, typically emphasizing some
form of the triple bottom line thinking (see, e.g. Slaper and Hall 2011), where sustainability includes
social, environmental and economic domains. Since no energy production comes without some societal
and environmental impact, we adopt a pragmatic extension to our definition of sustainability.
Sustainable energy enables societal development that is largely, even if not entirely, decoupled from
increasing environmental degradation for the foreseeable future.
Among renewables, the sustainability challenges of biomass combustion are perhaps the best-
acknowledged. Nevertheless, biomass has an irreplaceable role in many ambitious renewable energy
strategies and scenarios published by different organizations (see, e.g. European Commission 2011;
Teske et al. 2012; Nordic Energy Research 2016; WWF 2011). Biomass has three major environmental
issues and one significant societal issue. First, large scale biofuel production can threaten biodiversity
due to the land area and water it needs (Gerbens-Leenes et al. 2009; Erb, Haberl, and Plutzar 2012;
Pedroli et al. 2013; Immerzee et al. 2014). Efficient biomass cultivation and harvesting presents a
difficult trade-off with conservation of diverse ecosystems in the same area (Erb et al. 2012). Second,
energy use of biomass causes considerable net emissions in the short term (Cherubini et al. 2011;
Zanchi, Pena, and Bird 2011; Booth 2018), which limits its usefulness in curbing carbon emissions.
Third, biomass burning causes particulate pollution that has adverse health and climate impacts
(Sigsgaard et al. 2015; Chen et al. 2017). As for societal impacts, on a global scale biomass-based
energy production competes with food production for agricultural land and water (Gerbens-Leenes et
al. 2009; Dornburg et al. 2010), which could lead to increased food prices, causing major problems for
the poorest people and potentially resulting in societal unrest (Bellemare 2014). In general, intensive
1 As an interesting side note, it is worth mentioning that the Brundtland Report defines nuclear fission energy
from so-called “fast neutron spectrum” or breeder reactors as renewable energy, because fissile material
availability effectively ceases to be a concern for their sustainability. It is one indication of how the concept of
“renewable energy” has become a political concept for certain sorts of energy systems, that this definition has
not been widely accepted.
agriculture comes with the risk of soil degradation, groundwater pollution and loss of recreational value
(Tilman et al. 2002).
Detailed sustainability criteria can help address the abovementioned problems, but such criteria might
limit the scalability of biomass considerably. Scalability might not be an issue if the goal is to address
local problems. However, for the development and influence of policy with national and global
implications and application, we must consider whether or not an energy source can be scaled to
provide a substantial fraction of total energy use, and the sustainability implications of this scaling. A
biomass solution can be relatively sustainable if used in a local, small-scale manner, but unsustainable
in terms of land use, biodiversity loss and carbon emissions if it is used to power entire cities. Finally,
the sustainability of biomass use can be modified by technologies such as carbon capture and storage
(CCS) combined with bioenergy (BECCS). Proposed BECCS plants would be emission-free, but with a
penalty of decreased total energy efficiency. When the energy used for cultivating, harvesting, refining
and fuel logistics is taken into account, the energy return on energy invested (EROEI) for BECCS
plants, in particular, remains low, possibly even negative (Fajardy and Mac Dowell 2018).
The sustainability issues of renewable energy are not limited to bioenergy. Hydropower can have
severe negative environmental impacts, particularly but not exclusively relating to fish populations and
similar impacts relating to modification of freshwater hydrology (Chen et al. 2015, Zarfl et al. 2015).
Hydropower projects can also release large quantities of greenhouse gases as the original biomass
under reservoirs rots, when the water level fluctuation increases and they become large catchment areas
of organic matter and nutrients (Deemer et al. 2016) Hydropower projects also often result in
displacement of the local populace, and are therefore problematic from a societal sustainability point of
view, especially if the negative consequences are faced by poor, indigenous populations while
economic benefits are reaped elsewhere (Zarfl et al. 2015).
Geothermal energy has few adverse impacts other than possible local pollution and potentially
increasing earthquakes (Moriarty and Honnery 2012), but in order to meet the general definition of
renewability it has to be utilized only to the extent the energy flow can replenish itself, which is not
always the case (Stefansson 2000; Rybach 2007). The assessed values for global technical potential of
geothermal energy vary by orders of magnitude (Moriarty and Honnery 2012), but outside volcanic
areas its applications are generally restricted to providing low temperature heating.
The sustainability challenges of wind and solar power are related to the low energy density of the
energy flows they are harvesting and their variable nature. Low energy density results in high material
and land area requirements (Vidal, Goffe, and Arndt 2013; Brook 2014), and the need to mine high
volumes of potentially scarce raw materials such as tellurium and indium for solar photovoltaics
(Feltrin and Freundlich 2008; Tao et al. 2011; Grandell and Höök 2015) and rare earths for wind
turbines (Alonso et al. 2012; Habib and Wenzel 2014). Variable production of these sources means that
in order to provide reliable service, the system as a whole needs some combination of i) major energy
storage systems, ii) “overbuild” generation and transmission capacity, or iii) acceptance of decreased
level of service. The first two further increase the material and land area requirements to deliver the
energy service.
Energy security is a key factor in alleviating poverty (OECD/IEA 2010). From a societal sustainability
point of view the distributed nature of wind and solar energy seems positive. In theory they enable local
communities to become energy providers, disrupting the power of centralized major power utilities and
providing a source of local income. Empirical evidence suggests that whether renewable energy plans
achieve these aspirations really depends on specific policies. For example, in Germany, the economic
benefits of renewable energy policies have not been felt by the less affluent but rather by those with
considerable disposable income and opportunities to invest in and operate decentralized power
production (Stefes 2016).
None of the above arguments mean that renewable energy technologies cannot be providers of
sustainable energy. As with any form of energy production, the energy sources labeled as renewable
come with pros and cons that depend on their scale and their role in the energy system.
4.2 Renewables are very different from each other
Another problem with the concept of renewable energy is that it is an umbrella construct that includes
very different types of energy sources. The energy densities, practical siting requirements and physical
processes of different forms of renewable energy vary greatly.
Table 1 illustrates the miscellaneous nature of renewable energy sources. The different renewables are
compared based on their power density, primary form of energy harvested, land use, capacity and
nature of fluctuation. Power density is here measured by estimated land use intensity. This number
depends greatly on the underlying assumptions of what is included, but the diverse nature of the
renewables itself makes direct comparison complicated.
As Table 1 shows, the renewable forms of energy differ from each other in almost all aspects. One
thing is common, however; all these energy sources have a relatively low power density per area (for
comparison, these are around 0.2 and 0.1 for coal and nuclear energy, respectively; Fritsche et al.
2017), although there is an order of magnitude difference in this aspect too. Different renewables
harvest different forms of energy, which then requires different processes to convert the energy into
useful electricity or heat. Finally, it should be noted that most of these renewables are not able to
directly produce the high temperatures required by many industrial processes (Naegler et al. 2015).
The variability of energy production is a well-known challenge of many forms of renewable energy.
All these sources except biomass are dependent on local conditions, resulting in some form of
variability. However, the time scales and predictability of this variability are very different from each
other. Wind and solar power are directly dependent on the ambient weather conditions, causing the
power production to fluctuate in a matter of seconds (Anvari et al. 2016). Availability of hydropower
depends on water levels and flows on time scales varying from hourly and daily fluctuation of run-of-
river power plants to seasonal and annual fluctuation of storage hydropower with large reservoirs
(Kumar et al. 2011; Gaudard and Romerio 2014). It should be noted that technological innovations can
alter the figures of Table 1 in future. The fundamental physical limitations such as solar insolation,
wind catchment or biological primary production per unit of area however persist, limiting major shifts
in the power density or the nature of variability.
Table 1: The varying nature of different renewable energy forms. Coal and nuclear energy included for comparison.
Energy source Primary form of
Land use intensitya
Power fluctuation
Electricity by
photovoltaic effect
10 16-30 % Directly weather dependent. In
northern latitudes, season
dependent as well.
solar power
Thermal energy 15 25 – 80 % Directly weather dependent,
unless backed by heat storage.
Hydropower Kinetic energy 10 12-62 % Dependent on seasonal
precipitation and accumulating
Wind power Kinetic energy 1 26-52 % Directly weather dependent,
with some seasonal dependency.
Biomass Chemical energy 500b70-90 % Dependent on fuel properties.
Geothermal Thermal energy 2.5 72-98 % Dependent of local rate of
Wave power Kinetic energy 4.6c26 % Directly weather and tide
Coal and nuclear figures presented for comparison
Coal Chemical energy 0.2 (underground)
5 (open-cast)
75-93 % Fully controllable.
Nuclear Nuclear fission 0.1 85-90 % Dependent on fuel and plant
a Refers to the land area required for production of one megawatt hour of energy, according to the “typical” values by
Fritsche et al. (2017). Such figures should always be considered indicative only, since their exact values are highly
dependent on the background assumptions of the calculations. However, they clearly illustrate the differing scales of energy
b Figure for crop-based biomass.
c Tidal wave power is still largely under development. This figure is based on estimates presented by Waters (2008).
d Capacity factor is the ratio between average power and peak capacity. Presented figures are for utility scale technologies
and based on Transparent Cost Database (2018).
The incoherence of a concept is not necessarily a problem. There are many ambiguous concepts that
still have significant explanatory power and practical use. However, in energy policy design and
discourse, such incoherence can cause confusion. Businesses, cities, states and countries are making
pledges to run on 100 % renewable energy or electricity and these pledges are compared to each other,
yet they describe very different energy systems in terms of infrastructure, material flows and societal,
environmental and economic impact. For example, the fact that Iceland, Norway and Costa Rica have
abundant hydropower or geothermal resources and can produce practically all their electricity from
renewable sources tells us very little about the policy options in countries that are not as well endowed.
Nevertheless, it is common to see these countries used as examples of successful renewable energy
policies, and even academic publications often use these examples to make the case for 100 %
renewable energy (e.g. Brown et al. 2018).
4.3 Results of policies based on renewable energy are mixed
Conceptualizing certain forms of energy as renewable could be justified, if it leads to favorable policy
outcomes. What ‘favorable’ exactly means depends, of course, on goals set for the policy. The Paris
agreement (United Nations 2016) dictates in general that signatory countries should aim at sufficient
emission reductions to limit global warming to well below 2°C above pre-industrial levels. At the same
time, countries are interested in maintaining a secure supply of energy and improving their economic
performance and competitiveness.
The World Energy Council ranks energy policy achievement according to the so-called ‘Energy
Trilemma’: the ability to provide energy through three dimensions of energy security, energy equity
and environmental sustainability (World Energy Council 2017). The effectiveness of policy in meeting
the Energy Trilemma is one illustrative way to systematically assess and rank energy policies. Figure 3
illustrates the energy trilemma rankings and share of renewables in total primary energy supply for 120
countries for which data was available for year 2017. As we can see, there is low correlation between a
high share of renewables and “good” energy policy and in fact the observable correlation is mostly
negative. There are high ranking countries with a low share of renewables and there are low ranking
countries with a very high share of renewables. Naturally, the renewables in question are very different.
In the countries with poorer performance, the renewables are often manually collected firewood and
manure. Again, the label ‘renewable’ tells very little about the exact type of energy used.
Figure 3: The Energy Trilemma rankings and share of renewables in total primary energy supply in 2017 for 120 countries (Data: World
Energy Council 2017)
Perhaps the best-known renewable-based national energy policy is the Energiewende of Germany,
which aims to supply 60 percent of final energy consumption from renewables by 2050, along with
pledges of emission reductions in line with EU policy and a complete nuclear phase-out by 2022
(Agora Energiewende 2017). The premise of Energiewende has a long history in Germany, and the
current set policies were decided in 2010 and 2011 (Agora Energiewende 2017; Beveridge and Kern
2013). By 2017, German CO2 emissions had dropped by 4 percent compared to 2010
(Umweltbundesamt 2018), and in 2018 the newly elected German government announced that the
country would not meet the emission reduction targets it had set for 2020 (Oroschakoff 2018).
Although it is difficult to say what the emissions would have been without the Energiewende, these
challenges were expected. Several studies have pointed out that the policy may result in challenges in
grid management and reducing CO2 intensity (Bruninx et al. 2013; Schroeder et al. 2013; Knopf et al.
2015; Sopher 2015). The electricity prices for households are the second highest among all EU member
countries (Eurostat 2017). Yet at the same time, the economic growth of Germany has on average been
higher than in the EU or Euro area in general (European Commission 2018; Eurostat 2018b), with
Matthes et al. (2015) arguing that Germany’s energy policy has had an important role in lowering the
price of wind and solar generation worldwide, potentially playing a beneficial role in reducing
greenhouse emissions beyond German political borders. Thus, depending on what is valued and how,
the Energiewende might be judged either a success or a failure. However, in terms of reducing
Germany’s domestic greenhouse gas emissions and ensuring affordability for German consumers, it
has not been effective.
While energy security and equity are important, the case can be made that curbing carbon emissions is
the global priority of energy policy at the moment. So, in a world where renewable energy is frequently
framed as a key solution to climate change, how have we fared in reducing emissions? The answer is,
quite poorly. After remaining flat for three years (IEA 2017b), global CO2 emissions are estimated to
have grown by 2 percent in 2017 (Global Carbon Project 2018). Even staying below the 2°C threshold
without a high likelihood of overshooting would require major annual reductions. The national pledges
set for the Paris agreement are not nearly enough (Sanderson, O´Neill, and Tebaldi 2016), and there is
still a wide gap between those pledges and actual policies (Victor et al. 2017). Naturally, the current
conceptualization of energy as renewable or not can’t be adjudged as the root cause of failed climate
policies. But our conceptualizations have coexisted with this failure, and we suspect that this has
limited our policy choices.
4.4 Renewable energy enables bait-and-switch tactics
Despite the controversies described above, the concept of renewable energy has become ingrained in
climate policy logic. Climate policy can be seen as a complex, issue-based field (Schüssler et al. 2014),
where the activities of the many actors involved are no longer connected to the central institutions or
their goals. This can be the result of goal grafting (Grodal and O´Mahony 2017), where a shared goal
exists, while potentially disparate underlying interests such as promoting certain forms of energy
production are preserved. Such goal grafting allows actors participating in the field to rhetorically
support the shared grand goal without actually abandoning their underlying interests (Grodal and O
´Mahony 2017).
In the context of energy policy, the loose 1970s-era definition of “renewable energy” and its positive
associations have permitted politicians and lobbyists to get away with what are essentially bait-and-
switch schemes that seem to address climate change, but in reality serve only to improve public image
or promote selected technologies or interest groups and may hinder emission reductions or even
increase them and cause other undesirable environmental impacts.
As we described in section 4.1, bioenergy is perhaps the most problematic of all energy sources that are
nevertheless widely considered renewable. Despite its problems, the major upside of bioenergy from a
domestic political viewpoint is that it is argued to provide opportunities for domestic businesses or to
bring benefits to rural areas (see, e.g. BioPAD 2013; BioenNW 2015) which face the challenges of
growing urbanization and a lack of economic opportunity. The umbrella of renewable energy enables
downplaying this tradeoff of potential benefits for problems while including increased bioenergy use in
plans or policies that are labeled climate friendly and progressive. A recent example is the planned
national coal ban in Finland, which is communicated as determined and accelerated action for climate
change mitigation and promotion of renewable energy (Ministry of Economic Affairs and Employment
of Finland 2018), but which in reality is projected even in the official reports as relying mostly on
biomass for replacing coal and doesn’t result in direct emission reductions on a European level since it
affects only emissions already controlled within the ETS (Pöyry Management Consulting 2018). City
scale examples are the climate plans of Copenhagen (City of Copenhagen 2012) and Stockholm (City
of Stockholm 2016) and the renewable energy strategy of Vancouver (City of Vancouver 2015). Each
of these plans frames the city in question as a forerunner in climate change mitigation and emphasizes
the increase in the use of renewable energy. All the plans, however, relies heavily on bioenergy,
especially in heating and transportation.
The concept of renewable energy also enables biased visual communication of energy policies. Based
on our experiences, the typical illustration of a news piece, press release or publication about renewable
energy shows pictures of wind turbines or solar panels, whereas illustrations of biomass combustion are
rare even if in a particular case a significant percentage of the energy generated would come from
biomass (see, e.g. WWF 2011; City of Copenhagen 2012; European Parliament 2018; City of
Stockholm 2016; Federal Ministry for Sustainability and Tourism of Austria 2018). A brief search
among three major stock photography services reflects this bias as well: 2 Of the 300 popular photos on
renewable energy we browsed, only 15 depicted bioenergy, with the photos being dominated by wind
turbines and solar panels.
Another worrisome development is the interest of the fossil fuel industry in using the concept of
renewable energy to promote increased use of natural gas. Examples include the Norwegian energy
company Statoil (Equinor since 2018) running an international advertisement that labeled natural gas as
a natural partner for renewables,3 the Interstate Natural Gas Association of America framing natural gas
as the ideal resource to complement renewables and as an ally of renewable energy (INGAA 2016),
and the Finnish gas and diesel generator manufacturer Wärtsilä promoting a fully renewable future
without a schedule (Wärtsilä 2018). The Corporate Europe Observatory, a non-profit organization
focused on following lobbying activities within the EU, has reported systematic efforts of the fossil fuel
industry lobby to utilize the positive views on renewable energy to promote policies supporting natural
gas (Blanyà and Sabido 2017). This again shows how the vague concept of renewables enables such
bait-and-switch tactics that move policy ever further away from the underlying issue of greenhouse
It appears that the vendors of fossil gas and related technologies regard the intermittency of most
renewable energy sources as a business opportunity, one that will maintain the relevance of their
product in the face of policies that are, in theory, supposed to work against their product. Although in a
technical sense gas is indeed a good partner to variable renewables, gas is still a significant source of
greenhouse gas emissions; not just when burned to carbon dioxide, but also when methane inevitably
leaks from wellheads and pipelines (Howarth 2014; Schwietzke et al. 2016). There is reason to fear that
the co-promotion of gas and renewables will result in a lock-in to an energy system that includes a
significant share of renewable energy, but will not achieve more ambitious climate targets because
cheap fossil gas makes investments in non-fossil alternatives less appealing.
Assessing the efficacy and broader impact of these bait-and-switch tactics would require more detailed
research. It seems clear, however, that the ambiguity and positive connotations of the concept of
renewable energy have at least partly enabled these tactics.
4.5 There is no renewable energy
2 The search included the online stock photo services by Getty Images, Adobe Stock and iStock. For each a search with term
“renewable energy” was conducted and sorted by popularity. The first 100 photos were assessed. Photos of pellets,
combustion, energy crops or timber were counted, whereas photos of trees, plants or nature in general were not included in
the count. The search was conducted on 19.11.2018.
3 See Twitter posts with photo evidence:
Rytky, Tiina (@TiinaRytky) ”Natural Gas. The Perfect Partner for Renewables. #irony #diablocanyon #climate” 30.7.2016.
Tweet. [URL:]
Hellesen, Carl (@hellesen_) “And I think the green cred gas/oil companies get by cheering for renewables is a big part of
the problem.” 18.7.2017. Tweet. [URL:]
Riley, Brook (@pzbrookriley) “Statoil ads at Brussels airport. They really are determined to make us think #gas isn't a
#fossilfuel!” 5.1.2016 [URL:]
Finally, as a term, renewable energy is an oxymoron of sorts. Conservation of mass-energy guarantees
that energy never disappears, but the second law of thermodynamics dictates that the total entropy in an
isolated system can never decrease. Energy can be transformed in different processes, but the total
exergy – the available, useful work – decreases irreversibly. Energy itself cannot in the strict sense be
This of course may be nitpicking; what renewability in energy means is that the production harvests
some form of energy or material flow that is renewed by planetary or stellar processes faster than it is
depleted by its use. Still, renewability is an issue that should not be taken for granted. At least with
current technologies, all forms of renewable energy production rely on machines built with non-
renewable minerals. If variable energy production is balanced by chemical batteries, it emphasizes this
problem even more. Bioenergy relies on renewed biomass flows. While the biomass volume can be
renewed, the loss of biodiversity caused by land use changes is irreversible. Hydropower has similar
tradeoff issues.
It is also worth noting that non-renewability is not the primary concern for any form of energy now in
widespread use. Naturally, depletion becomes an issue in the long run, but the primary reason driving
the need to reduce the use of fossil fuels drastically is the climate change the greenhouse gas emissions
are causing.
5. Discussion and Alternative Conceptualizations
As we point out, there are many problems with the concept of renewable energy. While often
associated with sustainability, the two concepts can also be completely conflicting. The concept of
renewability in energy is fundamentally incoherent, encompassing as it does very different forms of
energy production. Share of renewable energy is a poor indicator for successful energy policy. The
concept of renewable energy also enables goal grafting that can drive environmental considerations to
the margins of energy policy. Finally, strictly speaking, renewable energy does not even exist.
There are good grounds to claim that the concept is not only problematic but even harmful. How could
the forms of energy production then be more usefully conceptualized for better supporting the
development of policy to effectively combat climate change and provide energy for sustainable
development? Sustainable energy would be a logical way of conceptualizing, but the term has already
been adopted by some to describe selected types of renewable energy and energy efficiency (see, e.g.
Prindle et al. 2007; Conserve Energy Future 2018). Other framings exist also; for example, Siemens
states that a sustainable energy supply is based both on renewable and conventional energy (Siemens
Problems with certain forms of renewable energy have led to reframing of selected renewables as “new
renewables (Jordan-Korte 2011, 14) that excludes hydro and traditional biomass or as WWS that
stands for wind, water and sunlight (Jacobson et al. 2017). However, there is reason to believe that the
distinction is not clear to the public and politicians at large, and that WWS studies are commonly
conceptualized as promoting renewable energy in general, not specifically “new” renewables or WWS.
Global energy scenarios that rely on WWS alone are also unlikely to provide enough energy for
equitable and sustainable economic development (Trainer et al. 2012), resulting in the problem of how
to frame and conceptualize all the forms of energy outside these three sources. The U.S. Department of
Energy’s concept of “clean energy” (Department of Energy 2018) is broader and includes basically all
energy sources other than fossil fuels. Cleanliness is, however, a problematic term in the sense that all
forms of energy production have an environmental impact even if their lifecycle carbon dioxide
emissions are low. “Clean” can therefore be deployed as a relative term in the energy policy discourse.
Natural gas is cleaner than coal both in terms of CO2 and other emissions, and then there is also the
contradictory lobbyist idea of “clean coal” (Pearce 2008).
A more useful concept can be low-carbon energy, but it opens up the debate about the problematic
categorization of biomass, which may be carbon neutral on a long enough (often decadal) timescale if
new growth absorbs enough carbon dioxide, but at least technically is not low-carbon (since it consists
largely of carbon) (e.g. Kallio et al. 2013). The timescale matters, because effective climate change
mitigation should reduce the amount of carbon ending up in the atmosphere now, not just decades
hence. Finally, from an engineering perspective, energy sources could be categorized based on the
nature of the production process. In mitigating climate and health impacts, the division between
combustion-based and non-combustion based energy production might be the most suitable.
Given the realities of climate change, we suggest a quadrant for making sense of the energy options
available (Table 2). It provides a simple yet accurate division between different energy sources, and a
roadmap that probably ought to be followed by the whole of human civilization: away from the
combustion-based energy sources in quadrants 4 and 2, and towards combustion free, low-carbon
sources in quadrant 1, all the while avoiding quadrant 3’s siren song of mostly combustion free yet
high-carbon combination of renewables and fossil fuels. Other conceptualizations are possible, but for
the duration of the climate emergency, it seems useful to focus on those aspects of energy sources that
are most pertinent for avoiding dangerous climate change.
Besides non-combustion based renewable energy, we have included nuclear power in quadrant 1 as a
low-carbon energy source due to its low direct and indirect CO2 emissions (Warner and Heath 2012).
While nuclear power is often considered controversial (Ho et al. 2018) and faces serious opposition and
reluctance in many countries (Kim et al. 2014), it has a key role in many mitigation pathways presented
in the Special Report on Global Warming of 1.5°C (IPCC 2018) and the earlier Fifth Assessment
Report (Bruckner et al. 2014) by the Intergovernmental Panel on Climate Change. Public opinion
should not be dismissed as insignificant, and nuclear waste, nuclear accidents and proliferation of
nuclear weapons are indisputably significant challenges that require attention and proper control and
already limit the applicability of nuclear power. Nevertheless, at least in historical experience, per
energy unit produced, the impact of nuclear energy on health (Hirschberg et al. 2016), land use (Cheng
and Hammond 2017) and biodiversity (Brook and Bradshaw 2014) has remained relatively modest.
Table 2. Carbon-combustion quadrant.
Too much
3. Energy systems that have nominally high shares of low carbon
generation but are backed up by high carbon fuels such as fossil
methane or large-scale biomass
4. Fossil fuels, biomass
(non-optimal sources, short-
1. Solar, wind, hydro, wave, tidal, geothermal, nuclear and
energy systems based on these + low-carbon energy storage
2. Biomass (selected
sources, long-term)
Mostly combustion free Mostly combustion based
We should also discuss the question of whether the focus of energy policy and debate should be shifted
completely away from categorizing different ways of producing energy and agonizing over which ones
to support and which to oppose. As discussed in sections 4.1 and 4.2, energy sources and geographic
conditions vary radically, and with the current conceptualization of energy sources as “good” and
“bad”, comparison between apples and oranges becomes inevitable. One beneficial way to reframe the
discussion could be to shift the focus from conceptualizing energy systems through energy production
methods – which also lets other sectors off the hook, so to speak ‒ to conceptualizing sustainable, low-
carbon societies and what they might look like in reality. The concept of deep decarbonization (see,
e.g. Bataille et al. 2016) could be a fruitful future path. All in all, we consider it important to critically
evaluate the current frames and framing processes and their impact within the field of energy policy.
6. Conclusion and Policy Implications
Framing and prevalent frames in the field of energy policy have a major role in forming policies, as
policy options are limited by the institutional conceptualizations and discourse available. Renewable
energy has become a dominant concept within energy policy, and many national and international legal
frameworks and policies are specifically designed around the idea of categorizing energy sources as
renewable or non-renewable. In public discourse, renewable energy is framed in a way that strongly
associates it with sustainability and successful climate change mitigation. However, as we point out,
the whole concept of renewable energy is questionable.
An incoherent and misleading concept is a problematic basis for policy development. We therefore
suggest that it would be best to avoid renewable energy as a term altogether and instead to
conceptualize energy sources based on their carbon emissions and whether they are based on
combustion or not. It might seem somewhat futile to try to dramatically transform discourse so deeply
ingrained within a field. Still, we must acknowledge the collective global failure in mitigating climate
change and the institutionalized concepts that seem to have played a role in that failure.
More nuanced terminology may in itself not be a panacea nor the key to effective climate mitigation. It
can, however, be a step in the right direction. The next steps should include, inter alia, more detailed
empirical analysis and quantification of the costs and benefits of various truly low-carbon approaches.
With this paper, we call upon the research community to develop and, perhaps most importantly, use in
their outreach and communications more accurate concepts and descriptions to measure and
communicate the desired policies and end-states, instead of relying on old concepts which, while
widely used in common parlance, are increasingly removed from the reality. We are also calling for
more attention to be paid to the “bait and switch” tactics used by politicians and industry lobbyists to
sell questionable energy sources as “renewable”, and to the fossil fuel firms using renewables-
compatibility as a marketing tool. We urgently need energy policies that are focused on emissions
rather than problematic and tendentious renewability. Therefore, let our words help, not limit our
efforts to save the world.
Alonso, E., Sherman, A.M., Wallington, T.J., Everson, M.P., Field, F.R., Roth, R., Kirchain, R.E.
(2012) Evaluating rare earth element availability: a case with revolutionary demand from clean
technologies, Environmental Science & Technology, vol. 46, iss. 6, pp. 3406-3413.
Agora Energiewende (2017) The Energiewende in a nutshell – 10 Q & A on the German energy
transition. [URL:
Agora_The_Energiewende_in_a_nutshell_WEB.pdf] Accessed 29.8.2018.
Ansari, S., Gray, B., Wijen, F. (2011) Fiddling while the ice melts? How organizational scholars can
take a more active role in the climate change debate, Strategic Organization, vol. 9, iss.1, pp. 70-76.
Anvari, M, Lohmann, G., Wächter, M., Milan, P., Lorenz, E., Heinemann, D., Reza Rahimi Tabar, M.,
Peinke, J. (2016) Short term fluctuations of wind and solar power systems, New Journal of Physics,
vol. 18, June 2016.
Apple (2018) Environmental Responsibility Report 2018 Progress Report, Covering Fiscal Year 2017.
Accessed 16.8.2018
Blanyá, S., Sabido, P. (2017) The Great Gas Lock-in – Industry lobbying behind the EU push for new
gas infrastructure, Corporate Europe Observatory. [URL:
the_great_gas_lock_in_english_.pdf] Accessed 19.11.2018
Bataille, C., Waisman, H., Colombier, M., Segafredo, L., Williams, J., Jotzo, F. (2016) The need for
national deep decarbonization pathways for effective climate policy, Climate Policy, vol. 16. iss. Sup1,
pp. s7-s26.
Bell, L. (1906). The Utilization of Natural Energy. Cassier’s Magazine, Vol. 29, pp. 466–476.
Bellemare, M.F. (2014) Rising Food Prices, Food Price Volatility, and Social Unrest, American Journal
of Agricultural Economics, vol. 97, iss. 1, pp. 1–21.
Benford, R.D., Snow, D.A. (2000) Framing Processes and Social Movements: An Overview and
Assessment, Annual Review of Sociology, vol. 26, pp.611-639.
Beveridge, R., Kern, K. (2013). The Energiewende in Germany: background, developments and future
challenges. Renewable Energy Law and Policy Review, vol. 4, no. 1, pp. 3-12.
BioenNW (2015) Benefits of Bioenergy, Project web site. [URL:
of-bioenergy/] Accessed 24.8.2018.
BioPAD (2013) Benefits of bioenergy, Project web site. [URL:
bioenergy/benefits-of-bioenergy/] Accessed 24.8.2018.
Booth, M.S. (2018) Not carbon neutral: Assessing the net emissions impact of residues burned for
bioenergy, Environmental Research Letters, vol. 13, no. 3, pp. 1-10.
Brook, B.W., Bradshaw, C.J. (2014) Key role for nuclear energy in global biodiversity conservation,
Conservation Biology, vol. 29, iss. 3, pp. 702-712.
Bruckner T., I.A. Bashmakov, Y. Mulugetta, H. Chum, A. de la Vega Navarro, J. Edmonds, A. Faaij,
B. Fungtammasan, A. Garg, E. Hertwich, D. Honnery, D. Infield, M. Kainuma, S. Khennas, S. Kim,
H.B. Nimir, K. Riahi, N. Strachan, R. Wiser, and X. Zhang,
(2014) Energy Systems. In: Climate Change 2014: Mitigation of Climate Change. Contribution of
Working Group III to the Fifth Assessment Report of the Intergovernmental Panel on Climate Change
[Edenhofer, O., R. Pichs-Madruga, Y. Sokona, E.
Farahani, S. Kadner, K. Seyboth, A. Adler, I. Baum, S. Brunner, P. Eickemeier, B. Kriemann, J.
Savolainen, S. Schlömer, C. von Stechow, T. Zwickel and J.C. Minx (eds.)]. Cambridge University
Press, Cambridge, United Kingdom and New York, NY, USA
Bruninx, K., Madzharov, D., Delarue, E. & D’haeseeler, W. (2013) Impact of the German nuclear
phase-out on Europe's electricity generation—A comprehensive study, Energy Policy, vol. 60, pp. 251-
Brown, T. W., Bischof-Niemz, T., Blok, K., Breyer, C., Lund, H., Mathiesen, B. V. (2018). Response
to ‘Burden of proof: A comprehensive review of the feasibility of 100% renewable-electricity
systems.’, Renewable and Sustainable Energy Reviews, vol. 92, pp. 834–847.
Caprotti, F. (2012) The cultural economy of cleantech: environmental discourse and the emergence of a
new technology sector, Transactions of the Institute of British Geographers, vol. 37, iss. 3, pp. 370-395.
Chen, S., Chen, B., Fath, B.D. (2015) Assessing the cumulative environmental impact of hydropower
construction on river systems based on energy network model, Renewable and Sustainable Energy
Reviews, vol. 42, pp. 78-92.
Chen, J., Li, C., Ristovski, Z., Milic, A., Gu, Y., Islam, M.S., Wang, S. Hao J., Hao, J., Zhang, H., He,
C., Guo, H., Hongbo, F., Miljevic, B., Morawska., L., Thai, P., Lam, Y.F., Pereira, G., Ding, A., huang,
X., Dumka, U.C. (2017) A review of biomass burning: Emissions and impacts on air quality, health and
climate in China, Science of The Total Environment, vol. 579, pp. 1000-1034.
Cheng, V.K.M., Hammond, G.P. (2017) Life-cycle energy densities and land-take requirements of
various power generators: A UK perspective, Journal of the Energy Institute, vol. 90, iss. 2, pp. 201-
Cherubini, F., Peters, G.P., Berntsen, T., Stromman, A.H., Hertwich., E. (2011) CO2 emissions from
biomass combustion for bioenergy: atmospheric decay and contribution to global warming, GCB
Bioenergy, vol. 3, iss. 5, pp. 413-426.
City of Copenhagen (2012) CPH 2025 Climate Plan – A Green, Smart and Carbon Neutral City, The
City of Copenhagen Technical and Environmental Administration, Edition Sept 2012. [URL:] Accessed 17.11.2018
City of Stockholm (2016) Strategy for a fossil-fuel free Stockholm by 2040, City Executive Office,
December 2016, Ref. no. 134-175/2015. [URL:
2040.pdf] Accessed 17.11.2018
City of Vancouver (2015) Renewable City Strategy 2015-2050. [URL:] Accessed 17.11.2018
Clack, C.T. M., Qvist, S.A., Morgan Bazilian, J.A., Brandt, A.R., Caldeira, K., Davis, S.J., Diakov,
V., Handschy, M.A., Hines, P.D.H., Jaramillo, P., Kammen, D.M., Long, J.C.S., Morgan, M.G., Reed,
A., Sivaram, V., Sweeney, J., Tynan, G.R., Victor, D.G., Weyant, J.P., Whitacre, J.F. (2017)
Evaluation of a proposal for reliable low-cost grid power with 100% wind, water, and solar, PNAS,
vol. 114, iss. 26, pp.6722-6727.
Clarke, F. W., Wiley, H. W., Herty, C. H., Parr, S. W., Dole, R. B. (1909). Report of the Committee of
the American Chemical Society Appointed to Cooperate with the National Conservation Commission.
Science, 29(745), pp. 570–574.
Conserve Energy Future (2018) What is Sustainable Energy?, Web site. [URL: https://www.conserve-] Accessed 29.3.2018.
Cotton, M., Rattle, I., Van Alstine, J. (2014) Shale gas policy in the United Kingdom: An
argumentative discourse analysis, Energy Policy, vol. 73, pp. 427-438.
Dahlsrud, A. (2006) How corporate social responsibility is defined: an analysis of 37 definitions,
Corporate Social Responsibility and Environmental Management, vol.15, iss. 1, pp. 1-13.
Deemer, B.R., Harrison, J.A., Li, S., Beaulieu, J.J., DelSontro, T., Barros, N., Bezerra-Neto, J.F.,
Powers, S.M., dos Santos, M., Vonk, J.A. (2016) Greenhouse Gas Emissions from Reservoir Water
Surfaces: A New Global Synthesis, BioScience, vol. 66, iss. 11, pp. 949–964.
Delucchi, M.A., Jacobson, M.Z. (2011) Providing all global energy with wind, water, and solar power,
Part II: Reliability, system and transmission costs, and policies, Energy Policy, vol. 39, iss. 3, pp. 1170-
Department of Energy (2018) Clean Energy, web site [URL:
innovation/clean-energy] Accessed 29.3.2018
DiMaggio, P., Powell, W.W. (1983) The iron cage revisited: institutional isomorphism and collective
rationality in organizational fields, American Sociological Review, Vol. 48, Iss. 2, pp. 147–160. http://
Dornburg, V., van Vuuren, D., van de Ven, G., Langeveld, H., Meeusen, M., Banse, M., van Oorschot,
M., Ros, J., van den Born, G., Aiking, H., Londo, M., Mozaffarian, H., Verweij, P., Lysen, E., Faaij, A.
(2010) Bioenergy revisited: Key factors in global potentials of bioenergy, Energy & Environmental
Science, Vol. 3., pp. 258-267.
Erb, K-H., Haberl, H., Plutzar, C. (2012) Dependency of global primary bioenergy crop potentials in
2050 on food systems, yields, biodiversity conservation and political stability, Energy Policy, vol. 47,
August 2012, pp. 260-269.
EU (2009) Directive 2009/28/EC Of the European Parliament and of the Council of 23 April 2009 on
the promotion of the use of energy from renewable sources and amending and subsequently repealing
Directives 2001/77/EC and 2003/30/EC.
EU (2016) The EU Emissions Trading System (EU ETS) Factsheet. [URL:] Accessed 16.11.2018.
EU (2018) Renewable energy directive, European Union information website. [URL:] Accessed
European Commission (2011) Energy Roadmap 2050, Communication from the commission to the
European Parliament, the Council, the European Economic and Social Committee and the Committee
of the Regions. Brussels, 15.12.2011. [URL:
uri=CELEX:52011DC0885&from=EN] Accessed 30.8.2018.
European Commission (2018) Economic forecast for Germany, Spring 2018, produced by the
Directorate-General for Economic and Financial Affairs (DG ECFIN). [URL:
germany/economic-forecast-germany_en] Accessed 30.8.2018.
European Parliament (2018) Energy: new ambitious targets on renewables and energy efficiency, Press
release 13.11.2018. [URL:
energy-new-ambitious-targets-on-renewables-and-energy-efficiency] Accessed 19.11.2018
Eurostat (2017) Electricity price statistics, Eurostat Statistics Explained. Web resource. [URL:] Accessed
Eurostat (2018a) Renewable energy statistics, Eurostat statistics explained. Web resource. [URL: http://] Accessed 16.8.2018.
Eurostat (2018b) Real GDP growth rate – volume - Percentage change on previous year. Web resource.
tab=table&init=1&language=en&pcode=tec00115&plugin=1] Accessed 30.8.2018
Evensen, D., Jacquet, J.B., Clarke, C.E., Stedman, R.C. (2014) What's the ‘fracking’ problem? One
word can’t say it all, The Extractive Industries and Society, vol. 1, iss. 2, pp. 130-136.
Facebook (2017) Sustainability – Adding clean and renewable energy to the grid. Web page. [URL:] Accessed 20.6.2018.
Fajardy, M., Mac Dowell, N. (2018) The energy return on investment of BECCS: is BECCS a threat to
energy security?, Energy & Environmental Science, vol. 11., pp. 1581-1594.
Federal Ministry for Sustainability and Tourism of Austria (2018) #mission2030 – Austrian Climate
and Energy Strategy, Vienna, September 2018. [URL:] Accessed
Feltrin, A., Freundlich, A. (2008) Material considerations for terawatt level deployment of
photovoltaics, Renewable Energy, vo. 33, iss. 2, pp.
Ferraro, F., Etzion, D., Gehman, J. (2015) Tackling Grand Challenges Pragmatically: Robust Action
Revisited, Organization Studies, vol. 36, iss. 3. pp. 363-390.
Frankfurt School (2018) Global Trends in Renewable Energy Investment 2018, Frankfurt School –
UNEP Collaborating Centre, Frankfurt School of Finance & Management, Frankfurt. [Available
online: ] Accessed
Fritsche, U.R., Berndes, G., Cowie, A.L., Dale, V.H., Kline, K.L., Johnson, F.X., Langeveld, H.,
Sharm, N., Watson, H., Woods, J. (2017) Energy and land use – Global land outlook working paper,
593a4294b8a79b4be75f6078/1496990366441/Energy+and+Land+Use__U_Fritsche.pdf] Accessed
3.9.2018.] Accessed 3.9.2018.
Gaudard, L., Romerio, F. (2014) The future of hydropower in Europe: Interconnecting climate, markets
and policies, Environmental Science & Policy,
vol. 37, March 2014, pp. 172-181.
Gerbens-Leenes, W., Hoekstra, A.Y., van der Meer, T.H. (2009) The water footprint of bioenergy,
Proceedings of the National Academy of Sciences of the United States of America, Vol. 106, iss. 25,
pp. 10219-10223.
Global Carbon Project (2018) Global Carbon Budget 2017. Online infographic. [URL:] Accessed
Goffman, E. (1974) Frame Analysis: An Essay on the Organization of Experience. New York: Harper
Google (2017) 100% renewable is just the beginning. Web page post. [URL:] Accessed 30.8.2018.
Grandell, L., Höök, M. (2015) Assessing Rare Metal Availability Challenges for Solar
Energy Technologies, vol. 7, pp 11818-11837.
Granqvist, N., Laurila, J. (2011) Rage against self-replicating machines: framing science and fiction in
the US nanotechnology field, Organization Studies, Vol. 32, No. 2, p. 253-280.
Grodal, S., O’Mahony, S. (2017) How does a grand challenge become displaced? Explaining the
duality of field mobilization, Academy of Management Journal 2017, vol. 60, no. 5, pp. 1801–1827.
Habib, K., Wenzel, H. (2014) Exploring rare earths supply constraints for the emerging clean energy
technologies and the role of recycling, Journal of Cleaner Production, vol. 84, December 2014, pp.
Hajer, M., Versteeg, W., (2005) A decade of discourse analysis of environmental politics:
achievements, challenges, perspectives. J. Environ. Policy Plann. 7 (3), 175–184.
Heard, B.P., Brook, B.W., Wigley, T.M.L., Bradshaw, C.J.A. (2017) Burden of proof: a comprehensive
review of the feasibility of 100% renewable-electricity systems, Renewable and Sustainable Energy
Reviews, vol. 76, September 2017, pp. 1122-1133.
Heuberger, C.F., Dowell, N.M. (2018) Real-world challenges with a rapid transition to 100%
renewable power systems, Joule, vol. 2, iss. 3, pp. 367-370.
Hirsch, P. M., Levin, D.Z. (1999) Umbrella advocates versus validity police: a life-cycle model,
Organization Science, vol. 10, iss. 2, pp.199-212.
Hirschberg, S., Bauer, C., Burgherr, P., Cazzoli, E., Heck, T., Spada, M., Treyer, K. (2016) Health
effects of technologies for power generation: contributions from normal operation, severe accidents and
terrorist threat, Reliability Engineering and System Safety, vol. 145, pp. 373-387.
Ho, S.S., Leong, A.D., Looi, J., Chen, L., Pang, N., Tandoc, E. Jr (2018) Science Literacy or Value
Predisposition? A Meta-Analysis of Factors Predicting Public Perceptions of Benefits, Risks, and
Acceptance of Nuclear Energy, Environmental Communication. Published online: 03 Jan 2018. https://
Howarth, R.W. (2014) A bridge to nowhere: methane emissions and the greenhouse gas footprint of
natural gas, Energy Science & Engineering, vol. 2, iss. 2, pp. 47-60.
IEA (2017a) World Energy Balances 2017. Paris, France.
IEA (2017b) IEA finds CO2 emissions flat for third straight year even as global economy grew in 2016,
news article, 17 March 2017. [URL:
emissions-flat-for-third-straight-year-even-as-global-economy-grew.html] Accessed 28.3.2018
IEA (2017c) Tracking Progress: Natural gas-fired power, Tracking Clean Energy Progress 2017. [URL:] Accessed 24.8.2018.
IEA (2018a) Addressing climate change - Policies and measures database. [URL:] Accessed 16.11.2018
IEA (2018b) IEA FAQ on Renewable energy. [URL:] Accessed 4.4.2018
IETA (2015) Overlapping Policies with the EU ETS, July 2015, International Emissions Trading
Association. [URL:] Accessed
Immerzee, D.J., Verweij, P.A., André, P.C.F. (2014) Biodiversity impacts of bioenergy crop
production: a state-of-the-art review, GCB Bioenergy, vol.6, iss. 3, pp. 183–209,
INGAA (2016) Natural gas & Renewables: Working together. Leaflet. [URL:] Accessed
INGAA (2018) Natural Gas and Renewables: the Dynamic Duo, web article, 24.1.2018.
[] Accessed 19.11.2018.
IPCC (2018) Summary for Policymakers. In: Global warming of 1.5°C. An IPCC Special Report on the
impacts of global warming of 1.5°C above pre-industrial levels and related global greenhouse gas
emission pathways, in the context of strengthening the global response to the threat of climate change,
sustainable development,
and efforts to eradicate poverty [V. Masson-Delmotte, P. Zhai, H. O. Pörtner, D. Roberts, J. Skea, P. R.
Shukla, A. Pirani, W. Moufouma-Okia, C. Péan, R. Pidcock, S. Connors, J. B. R. Matthews, Y. Chen,
X. Zhou, M. I. Gomis, E. Lonnoy, T. Maycock, M. Tignor, T. Waterfield (eds.)]. World Meteorological
Organization, Geneva, Switzerland, 32 pp.
IRENA (2016), Renewable Energy benefits: Decentralised Solutions in the Agri-food Chain, The
International Renewable Energy Agency, Abu Dhabi.
IRENA (2017), Renewable energy benefits: Leveraging local capacity for solar PV, The International
Renewable Energy Agency, Abu Dhabi.
IRENA (2018) IRENA Membership, web site. [URL:]
Accessed 29.5.2018.
Jacobson, M.Z., Delucchi, M.A. (2011) Providing all global energy with wind, water, and solar power,
Part I: technologies, energy resources, quantities and areas of infrastructure, and materials, Energy
Policy, vol. 39, iss. 3, pp. 1154-1169
Jacobson, M.Z., Delucchi, M.A., Bauer, Z.A.F, Goodman, S.C., Chapman, W.E., Cameron, M.A.,
Bozonnat, C., Chobadi, L., CLonts, H.A., Enevoldsen, P., Erwin, J.R., Fobi, S.N., Goldstrom, O.K.,
Hennessy, E.M., Liu, J., Lo, J., Meyer, C.B., Morris, S.B., Moy, K.R., O’Neill, P.L., Petkov, I.,
Redfern, S., Schuker, R., Sontag, M.A., Wang, J., Weiner, E., Yachanin, A.S. (2017) 100% Clean and
Renewable Wind, Water, and Sunlight All-Sector Energy Roadmaps for 139 Countries of the World,
Joule, vol. 1, iss.1, pp. 108-121.
Jessup, B. (2010) Plural and hybrid environmental values: a discourse analysis of the wind energy
conflict in Australia and the United Kingdom, Environmental Politics, vol. 19, iss. 1, pp. 21-44. https://
Jordan-Korte, K. (2011) Government Promotion of Renewable Energy Technologies Policy
Approaches and Market Development in Germany, the United States, and Japan. Springer Gabler,
ISBN 978-3-8349-6587-5.
Kallio, A. M. I., Salminen, O., Sievänen, R. (2013). Sequester or substitute—consequences of
increased production of wood based energy on the carbon balance in Finland. Journal of Forest
Economics, vol 19, iss. 4, pp. 402–415.
Kates, R.W., Parris, T.M., Leiserowitz, A.A. (2005) Editorial - What is sustainable development?
Goals, indicators, values, and practice, Environment: Science and Policy for Sustainable Development,
vol. 47., iss. 3, pp. 8-21.
Kim, Y., Kim, W., Kim, M. (2014) An international comparative analysis of public acceptance of
nuclear energy, Energy Policy, vol. 66, pp. 475-483.
Kirk, A. (2001). Appropriating Technology: The whole earth catalog and counterculture environmental
politics, Environmental History, vol. 6, no.3, pp. 374–394. 10.2307/3985660
Knopf et al. (2015) Germany’s nuclear phase-out: sensitivities and impacts on electricity prices and
CO2 emissions, Economics of Energy & Environmental Policy, vol. 3, no. 1, p. 89-106.
Kumar, A., Schei, T., Ahenkorah, A., Caceres Rodriguez, R., Devernay, J.-M., Freitas, M. , Hall, D.,
Killingtveit, Å., Liu, Z. (2011) Hydropower. In IPCC Special Report on Renewable Energy Sources
and Climate Change Mitigation [O. Edenhofer, R. Pichs-Madruga, Y. Sokona, K. Seyboth, P.
Matschoss, S. Kadner, T. Zwickel, P. Eickemeier, G. Hansen, S. Schlömer, C. von Stechow (eds)],
Cambridge University Press, Cambridge,
United Kingdom and New York, NY, USA.
Littlefield, S.R. (2013) Security, independence, and sustainability: imprecise language and the
manipulation of energy policy in the United States, Energy Policy, vol. 52, January 2013, pp. 779-788.
Lovins, A. (1976). Energy strategy: the road not taken. Foreign Affairs, vol. 55, no. 1, pp. 65–96.
Matthes, F.C., Haller, M., Loreck, C., Cook, V. (2015) Die Umlage des ErneuerbarenEnergien-
Gesetzes (EEG). Hintergründe, Trends, Treiber und Perspektiven. (In German, with English summary).
Öko-Insitut, Berlin, Germany. [URL: ] Accessed
Ministry of Economic Affairs and Employment (2018) Legislative proposals: coal ban in 2029, more
transport biofuels and more biofuel oil for heating and machinery, Press release 18.10.2018. [URL:
liikenteeseen-seka-biopolttooljya-lammitykseen-ja-tyokoneisiin] Accessed 16.11.2018.
Moriarty, P., Honnery, D. (2012) What is the global potential for renewable energy?, Renewable and
Sustainable Energy Reviews, vol. 16, pp. 244-252.
Naegler, T., Simon, S., Klein, M., Gils, H.C. (2015) Quantification of the European industrial heat
demand by branch and temperature level, International Journal of Energy Research, vol. 39, iss. 15, pp.
Nordic Energy Research (2016) Nordic Energy Technology Perspectives 2016 - Cities, flexibility and
pathways to carbon-neutrality, Nordic Energy Research, Norway. [URL:
wp-content/uploads/2016/04/Nordic-Energy-Technology-Perspectives-2016.pdf] Accessed 31.8.2018
OECD/IEA (2010) Energy poverty - How to make modern energy access universal? Special early
excerpt of the World Energy Outlook 2010 for the UN General Assembly on the Millennium
Development Goals. International Energy Agency, Paris, France, [URL:
Energy_Poverty_Excerpt_WEO2010.pdf] Accessed 3.9.2018.
OECD (2011) Interactions Between Emission Trading Systems and Other Overlapping Policy
Instruments, General Distribution Document, Environment Directorate,
OECD, Paris.
O’Neill, S.J, Smith, N. (2014) Climate change and visual imagery, WIREs Clim Change, vol. 5, pp. 73-
Oroschakoff, K. (2018) Germany’s green energy shift is more fizzle than sizzle, Politico. 23.3.2018.
sizzle/] Accessed 31.8.2018.
Pearce, F. (1991). Green Warriors: The People and the Politics Behind the Environmental Revolution.
London: The Bodley Head.
Pearce, F. (2008) Time to bury the 'clean coal' myth, The Guardian, 30.10.2000. [URL:] Accessed
Pedroli, B., Elbersen, B., Frederiksen, P., Grandin, U., Heikkilä, R., Henning Krogh, P., Izakovicova,
Z., Johansen, A., Meiresonne, L., Spijker, J. (2013) Is energy cropping in Europe compatible with
biodiversity? - Opportunities and threats to biodiversity from land-based production of biomass for
bioenergy purposes, Biomass and Bioenergy, vol. 55, pp. 73-86.
Plessmann, G., Ermann, M., Hlusiak, M., Breyer, C. (2014) Global Energy Storage Demand for a
100% Renewable Electricity Supply, Energy Procedia, vol. 46, pp. 22-31.
Prindle, B., Eldridge, M., Eckhardt, M., Frederick, A. (2007) The Twin Pillars of Sustainable Energy:
Synergies between Energy Efficiency and Renewable Energy Technology and Policy. ACEEE Report
Number E074, American Council for an Energy-Efficient Economy.
Pöyry Management Consulting (2018) Impact assessment of banning coal use – report to the Ministry
of Economic Affairs and Employment of Finland (in Finnish). [URL:
Accessed 16.11.2018.
RE100 (2018) RE100 website. [URL:] Accessed 3.9.2018.
Rosenberg, N. (1976). Perspectives on Technology. Cambridge, UK: Cambridge University Press.
Rybach, L. (2007) Geothermal sustainability, Geo-heat Center Quarterly Bulletin, vol. 28, no. 3. pp. 2-
7. [URL:
28/28-3/28-3-bull-all.pdf?sfvrsn=4] Accessed 31.8.2018.
Sanderson, B.M., O´Neill, B.C., Tebaldi, C. (2016) What would it take to achieve the Paris temperature
targets?, Geophys. Res. Lett., vol. 43, iss. 13, pp. 7133–7142,
Schumacher, E. F. (1973). Small is Beautiful. A Study of Economics as if People Mattered. London:
Blond and Briggs.
Schüssler, E., Rüling, C.-C., Wittneben, B.B.F. (2014) On melting summits: The limitations of field-
configuring events as catalysts of change in transnational climate policy, Academy of Management
Journal, vol. 57, no. 1, pp. 140-171.
Schwietzke, S., Sherwood, O.A., Bruhwiler, L.M.P., Miller, J.B., Etiope, G., Dlugokencky, E.J.,
Englund Michel, S., Arling V.A., Vaugh, B.H., White, J.W.C., Tans, P.P. (2016) Upward revision of
global fossil fuel methane emissions based on isotope database, Nature,538, pp. 88-91.
Schoeder A., Oei, P-Y., Sander, A., Hankel. L., Laurisch, L.C. (2013) The integration of renewable
energies into the German transmission grid—A scenario comparison, Energy Policy, Vol. 61, pp. 140-
Scott, W.R. (1995) Institutions and Organizations. Thousand Oaks, CA, USA.
Scott, W.R. (2008) Institutions and Organizations: Ideas and Interests, 3rd ed. Sage
Publications, Los Angeles, CA, USA.
Scrase, J.I., Ockwell, D.G. (2010) The role of discourse and linguistic framing effects in sustaining
high carbon energy policy - An accessible introduction, Energy Policy, vol. 38, iss. 5, pp. 2225-2233.
Siemens (2018) Heading toward a sustainable energy system, web site. [URL:] Accessed
Sigsgaard, T., Forsberg, B., Annesi-Maesano, I., Blomberg, A., Bølling, A., Boman, C., Bønløkke, J.,
Brauer, M., Bruce, N., Héroux ,M.E., Hirvonen, M.R., Kelly, F., Künzli, N., Lundbäck, B.,
Moshammer, H., Noonan, C., Pagels, J., Sallsten, G., Sculier, J.P., Brunekreef, B. (2015) Health
impacts of anthropogenic biomass burning in the developed world, Eur Respir J., vol. 46, iss. 6,
Slaper, T.F., Hall, T.J. (2011) The Triple Bottom Line: What Is It and How Does It Work?, Indiana
Business Review. vol. 86, no. 1, p 4-8.
Sopher, P. (2015) Lessons Learned from Germany's Energiewende: The Political, Governance,
Economic, Grid Reliability, and Grid Optimization Bedrock for a Transition to Renewables,
Renewable Resources Journal, vol 29, iss. 3. pp. 6-13.
Stefansson, V. (2000) The renewability of geothermal energy, Proceedings World Geothermal
Congress 2000, pp. 883-888. [URL:
R0776.PDF] Accessed 3.9.2018.
Stefes, C. F. (2016) Critical Junctures and the German Energiewende, in Hager, C., Stefes, C. (eds)
(2016) Germany's Energy Transition - A Comparative Perspective, Palgrave Macmillan, US.
Särkikoski, T. (2011). Rauhan atomi, sodan koodi: Suomalaisen atomivoimaratkaisun teknopolitiikka
1955-1970. PhD thesis, Department of History, University of Helsinki, Helsinki.
Thornton, P.H., Ocasio, W. (1999) Institutional logics and the historical contingency of power in
organizations: executive succession in the higher education publishing industry, 1958–1990, Am. J.
Sociol, vol. 105, iss. 3, pp. 801–843. .
Tilman, D., Cassman, K.G., Matson, P.A., Naylor, R., Polasky, S. (2002) Agricultural sustainability
and intensive production practices, Nature, Vol. 418, August 2002, pp. 617-677.
Transparent Cost Database (2018) Open Energy Information (en). []URL:] Accessed 17.9.2018.
Trainer, T. (2012) A critique of Jacobson and Delucchi's proposals for a world renewable energy
supply, Energy Policy, vol. 44, May 2012, pp. 476-481.
Tao, C.S., Juang, J., Tao, M. (2011) Natural resource limitations to terawatt-scale solar cells, Solar
Energy Materials and Solar Cells, vol. 95, iss. 12, pp. 3176-3180.
Teske, S. Muth, J., Sawyer, S., Pregger, T. Simon, S., Naegler, T., O´Sullivan, M., Schmid, S.,
Pagenkopf, J., Frieske, B., Graus, W.H.J., Kermeli, K., Zittel, W., Rutovitz, J., Harris, S., Ackermann,
T., Ruwhata, R., Martense, N. (2012) Energy [r]evolution – A sustainable energy outlook, 4th edition
2012 world energy scenario. Greenpeace International, EREC and GWEC.
Umweltbundesamt (2018) Klimabilanz 2017: Emissionen gehen leicht zurück - Niedrigere Emissionen
im Energiebereich, höhere im Verkehrssektor (in German). [URL:
leicht-zurueck] Accessed 3.9.2018
United Nations (1987) Report of the World Commission on Environment and Development: Our
Common Future, Annex to document A/42/427 - Development and International Co-operation:
Environment, United Nations.
United Nations (2016). The Paris Agreement. Paris: United Nations. [URL:] Accessed 3.9.2018.
Victor, D.G., Akimoto, K., Kaya, Y., Yamaguchi, M., Cullenward, D., Hepburn, C. (2017) Prove Paris
was more than paper promises, Nature, vol. 548, iss. 7665, pp. 25–27.
Vidal, O., Goffe, B., Arndt, N. (2013) Metals for a low-carbon society, Nature Geoscience, vol. 6, pp.
Warner, E. S., & Heath, G. A. (2012). Life cycle greenhouse gas emissions of nuclear electricity
generation. Journal of Industrial Ecology, 16, S73–S92.
Waters, R. (2008) Energy from Ocean Waves - Full Scale Experimental Verification of a Wave Energy
Converter, Digital Comprehensive Summaries of Uppsala Dissertations from the Faculty of Science
and Technology 580. [URL: ]
Accessed 3.9.2018.
World Energy Council (2017) World Energy Trilemma Index 2017 – Monitoring the sustainability of
national energy systems, London, UK. [URL:]
Accessed 3.9.2018.
WWF (2011) The Energy Report – 100 % Renewable Energy by 2050. WWF International, Gland,
Switzerland. [URL:]
Accessed 3.9.2018.
Weart, S. R. (2012). The Rise of Nuclear Fear. Cambridge, MA, Harvard University Press.
Wärtsilä (2018) Wärtsilä leading along the path towards a 100% renewable energy future, Wärtsilä
Corporation Press release14 June 2018 at 10:00 AM E. Europe Standard Time.
renewable-energy-future-2207856] Accessed 3.9.2018.
Zarfl, C., Lumsdon, A.E., Berlekamp, J., Tydecks, L., Tockner, K. (2015) A global boom in
hydropower dam construction, Aquatic Sciences,vol. 77, iss. 1., pp. 161–170.
Zanchi, G., Pena, N., Bird, N. (2011) Is woody bioenergy carbon neutral? A comparative assessment of
emissions from consumption of woody bioenergy and fossil fuel, GCB Bioenergy, vol. 4, iss. 6, pp.
... In contrast, RE impacts the economy, society, and politics (Box 2). Box 2. The challenges of setting up a renewable energy system [59]. environmental pollution, less reliance on fossil fuels, and more efficient energy production and supply [54,55]. ...
... Source: Harjanne et al. [59] Despite so many issues regarding installing renewable energy systems, "Smart grid" technology can be used to enable the efficient control and transfer of renewable energy sources, such as solar, wind, and hydrogen. The smart grid connects various distributed energy resources to the power grid. ...
Full-text available
Successful energy transitions, also referred to as leapfrog development, present enormous prospects for EU nations to become carbon neutral by shifting from fossil fuels to renewable energy sources. Along with climate change, EU countries must address energy security and dependency issues, exacerbated by factors such as the COVID-19 pandemic, rising energy costs, conflicts between Russia and Ukraine, and political instability. Diversifying energy sources, generating renewable energy, increasing energy efficiency, preventing energy waste, and educating the public about environmental issues are proposed as several strategies. The study draws the conclusion that central European countries may transition to a clean energy economy and become carbon neutral on economic and strategic levels by locating alternative clean energy supply sources, reducing energy use, and producing renewable energy. According to the study, the EU energy industry can be decarbonised and attain energy security using three basic strategies, such as supply diversification, energy savings, and quicker adoption of renewable energy to replace fossil fuels. The energy transformation industry still needs to improve energy efficiency, incorporate a circular and sustainable bioeconomy, and support renewable energies, including solar, wind, hydropower, nuclear, and hydrogen.
... Given the problems faced by both fossil and nuclear fuels, RE should take into account most energy production within a few decades. However, widespread uncertainty surrounds national and global estimates of technological feasibility for all renewable energy sources [3]. Two the key Renewable energy for sustainable development the challenges of the strategies can be identified. ...
Full-text available
Renewable energy technologies are Useful for natural events By converting energy into forms that Produce marketable energy. However, they are commonly contagious and completely inaccessible, some are intermittent, and all have distinct territory variations. Features Renewable energy Development of resources and As difficult as their nature in use, But solvable, Technical, organizational, and Economic inherent challenges. The energy we receive is the continuous exposure of the Our planet and By the dynamics of its atmosphere The sun changes in many ways: Below the surface, High temperature causes its original function; For ancient photosynthesis The presence of hydrocarbons in the soil; Wind and waves for current temperature differences. Biomass fuels include low-energy cities and storage and transportation costs are prohibited. Producing electricity using biomass is technically well established, but cost-effective electricity occasionally offsets the full cost of biofuels. There are several efficient methods, so we politely propose the use of bioenergy we use patents as a measure of the technical range for each of these four technologies: air, sunlight, geothermal, and electricity from life and waste. Wind power is a fast-growing source of renewable energy and most instant phase connection causes problems; the Time variation of wind power is well documented. It is assumed that "ERG" runs on air. The output of the Sperm Turbine Debates One the Wind Speed, With Wares over White Range measurements. In addition to power generation, water pumping dominates the provided in the literature on Applications of solar energy. Solar power efficiency Calculated and completed using a GIS-based solar radiation instrument by evaluating local properties.
... The challenges in consumption mainly come from two aspects. On the one hand, the volatility and intermittency of renewable energy cause it to be difficult to connect to the grid and result in a low utilization rate [87]. Therefore, energy storage is required to reduce the abandonment of wind and solar energy. ...
Full-text available
To achieve their carbon peak and carbon neutrality target, China's energy transition is seen as the most important instrument. Despite the rapid growth of renewable energy in China, there are still many challenges. Based on the review of the contemporary literature, this paper seeks to present an updated depiction of renewable energy in the Chinese context. The potential, status quo, and related policy of China's renewable energy are thoroughly investigated. The challenges facing renewable energy development under the carbon neutrality target are analyzed, including enormous transition urgency and pressure, technology, and policy issues. Then, coping strategies are proposed to guide the direction of renewable energy development. Technology paths and policy recommendations are presented. This paper contributes to technology developing and policymak-ing by providing a comprehensive, thorough, and reliable review of renewable energy development in China.
Full-text available
The global renewable energy landscape is changing rapidly. Green energies reduce greenhouse gas emissions, diversify the energy supply, and lower dependence on volatile and uncertain fossil fuel markets. The future looks promising for green energy sources, which are taking on an increasingly important role, especially in the current context, as governments are trying to identify viable solutions to the energy crisis and reduce dependence on fossil fuels. Worldwide, there is a growing interest in and support for green energy sources, a factor that could help accelerate the current energy transition. Despite these positive developments, much remains to be done globally to make the energy transition a reality. In this respect, the European Union member states have committed to a wide neutrality target by establishing an increase in the total share of energy from renewable sources to 55% (by 2030) and, at the same time, reducing the net greenhouse gas effect emissions by at least 55% until 2030 to reach the neutrality target by 2050. Green energy sources are essential for long-term efforts to mitigate climate change and will play an important role in improving energy security and accessibility. The efforts of every country to strengthen the energy sector through the development of green energies will reduce geopolitical risks and disproportionate external costs for society. The large-scale use of green energies will contribute to sustainable development. The objective of our research is to review the literature on green energy in the context of sustainable development by analyzing research conducted by various authors and international organizations on these topics. The period considered for this study is 2011–2020. Our research focused on the EU 27, but the review also took into account the results obtained by other countries worldwide, such as China, the USA, Norway, and Iceland. The main research method used was the analysis of scientific papers, studies developed by international organizations, and a wide set of agreements and political commitments assumed by different states for developing green energy as a solution for sustainable development. The obtained results show an interesting international debate about green energies and how they can contribute to sustainable development. This paper’s results also show that in 2019 at the global level, low-carbon energy sources, including nuclear power and renewable energy, accounted for 15.7% of primary energy (solar, wind, hydropower, bioenergy, geothermal and wave and tidal), while in 2021, for the EU 27, the share of energy from renewable sources reached 22%. According to international statistics, more than 90% of the governments of many countries are making investments to efficiently capitalize on green energy sources and to design new models of sustainable economic and social development, in order to lower pollution levels, reduce the dependence on fossil fuel imports and limit the climate change impact.
Full-text available
The study aims to examine the effect of environment and economic variables on logistic performance in India. In order to study the long run and short run association between the variables the study employed auto regressive distribution lag (ARDL) approach on a time series data from 2007 to 2018. The result revealed that foreign direct investment (FDI) has a positive relation with LPI whereas fossil fuel consumption in both the short and long run has a negative relation. On the other hand, GDP per capita has a negative relation with LPI while total greenhouse gas emissions has a positive relation, which is a sign of concern for environment sustainability. In the recent report published by the World Bank India’s rank has slipped down from 35th to 44th position worldwide whereby all the six dimensions have shown a downward trend. India being one of the largest customer oriented market would negatively affect the world economy if its logistics operation are poorly driven. This study highlights few reason why India lacks behind in its logistics performance and provide suggestion how India can improve its logistic operation at global level.
The project scholarship community needs to revisit how it conceptualizes a ‘project’ to understand it as an intervention into nature: intervening in both existing situations and uncertain futures. Taking a post-rationalistic approach to the future, in this essay we set out how we conceive of projects as interventions, and the important implications of this for practice and scholarship. While there are promising recent developments, there is also an urgency to further shift the mindset away from conceiving of projects as solely a social or technological endeavour, with success measured in terms of cost, quality and schedule; toward a broader outcome focus, with concern for both the natural resources used and the positive and negative impacts on places and people across time. This has implications for the skills needed by practitioners and their training, for the kind of projects that are conceived and delivered, and for our scholarship community and its agendas for further research.
Full-text available
Solar energy may cater current power demand and second generation with modified technologies could play important role. This review presents role of ZnTe as efficient interface to CdTe devices with future road map to improve device performance.
Full-text available
Metal halide perovskite solar cells may work for application in extreme temperatures, such as those experienced under extraterrestrial conditions. However, device performances in extreme temperatures are poorly investi-gated. This work systematically explores the performance of perovskite solar cells between −160 and 150 °C. In situ grazing-incidence wide-angle X-ray scattering discloses perovskite phase transition and crystal disordering as dominant factors for the temperature-dependent device efficiency deteriora-tion. It is shown that perovskite lattice strain and relaxation originating from extreme temperature variations are recoverable, and so are the perovskite structure and photovoltaic performances. This work provides insights into the functioning under extreme temperatures, clarifying bottlenecks to overcome and the potential for extraterrestrial applications.
The rapid development of wind power has imposed many challenges on the operation of the power system. Energy storage system has broad application prospects in promoting wind power to the grid. However, the high price of the energy storage restricts the development of the combined wind energy-storage system. In order to deal with the power fluctuation of the large-scale wind power grid connection, we propose an allocation strategy of energy storage capacity for combined wind-storage system considering the wind power output volatility and battery storage system’s own operational constraints. The model aims to maximize the annual avenue of the cogeneration system, which allows for the investment fee, operation and maintenance fee and penalty cost of the combined system. The calculation results validate the effectiveness of the optimal allocation strategy.
Renovative energies are often presented as the primary alternative for addressing the climate challenge. This paper proposes a non-parametric method to study the relationship between globalization and aggregated (disaggregated) renewable energy consumption for a panel of 15 nations over the period 1990–2018. Specifically, we draw on the local linear dummy variable estimation (LLDVE) method that allows us to capture, at each point in time, the impact of globalization on renewable energy consumption and how the relationship changed through time. The non-parametric panel data results show a time-varying relationship between globalization and renewable energy deployment, where it is negative and statically significant between 2002 and 2011, and then turns positive and statically significant for the post-2014 period. We also find that globalization exhibits heterogeneous impacts depending on the renewable energy measure used. The time-varying effects suggest that globalization is driving renewable energy consumption through various channels, with some channels appearing to be more prominent at specific times. Therefore, there is a need for policymakers to consider the role of globalization when designing policies related to renewable energy adoption or transition, especially being proactive in policy formulation, considering what channels the process of globalization operates through.
Full-text available
Stabilizing greenhouse gas (GHG) concentrations will require large-scale transformations in human societies, from the way that we produce and consume energy to how we use the land surface. A natural question in this context is what will be the .transformation pathway. towards stabilization; that is, how do we get from here to there? The topic of this chapter is transformation pathways. The chapter is primarily motivated by three questions. First, what are the near-term and future choices that define transformation pathways, including the goal itself, the emissions pathway to the goal, technologies used for and sectors contributing to mitigation, the nature of international coordination, and mitigation policies? Second, what are the key characteristics of different transformation pathways, including the rates of emissions reductions and deployment of low-carbon energy, the magnitude and timing of aggregate economic costs, and the implications for other policy objectives such as those generally associated with sustainable development? Third, how will actions taken today influence the options that might be available in the future? As part of the assessment in this chapter, data from over 1000 new scenarios published since the IPCC Fourth Assessment Report (AR4) were collected from integrated modelling research groups, many from large-scale model intercomparison studies. In comparison to AR4, new scenarios, both in this AR5 dataset and more broadly in the literature assessed in this chapter, consider more ambitious concentration goals, a wider range of assumptions about technology, and more possibilities for delays in additional global
Full-text available
Energy intensive supply chains and low power generation efficiency could challenge the ubiquitous assumption that BECCS is a net provider of electricity. Deploying a net negative energy technology at the EJ scale could represent a threat to energy security.
Full-text available
Climate mitigation requires emissions to peak then decline within two decades, but many mitigation models include 100 EJ or more of bioenergy, ignoring emissions from biomass oxidation. Treatment of bioenergy as 'low carbon' or carbon neutral often assumes fuels are agricultural or forestry residues that will decompose and emit CO2 if not burned for energy. However, for 'low carbon' assumptions about residues to be reasonable, two conditions must be met: biomass must genuinely be material left over from some other process; and cumulative net emissions, the additional CO2 emitted by burning biomass compared to its alternative fate, must be low or negligible in a timeframe meaningful for climate mitigation. This study assesses biomass use and net emissions from the US bioenergy and wood pellet manufacturing sectors. It defines the ratio of cumulative net emissions to combustion, manufacturing and transport emissions as the net emissions impact (NEI), and evaluates the NEI at year 10 and beyond for a variety of scenarios. The analysis indicates the US industrial bioenergy sector mostly burns black liquor and has an NEI of 20% at year 10, while the NEI for plants burning forest residues ranges from 41%–95%. Wood pellets have a NEI of 55%–79% at year 10, with net CO2 emissions of 14–20 tonnes for every tonne of pellets; by year 40, the NEI is 26%–54%. Net emissions may be ten times higher at year 40 if whole trees are harvested for feedstock. Projected global pellet use would generate around 1% of world bioenergy with cumulative net emissions of 2 Gt of CO2 by 2050. Using the NEI to weight biogenic CO2 for inclusion in carbon trading programs and to qualify bioenergy for renewable energy subsidies would reduce emissions more effectively than the current assumption of carbon neutrality.
Full-text available
A recent article ‘Burden of proof: A comprehensive review of the feasibility of 100% renewable-electricity systems’ claims that many studies of 100% renewable electricity systems do not demonstrate sufficient technical feasibility, according to the criteria of the article's authors (henceforth ‘the authors’). Here we analyse the authors’ methodology and find it problematic. The feasibility criteria chosen by the authors are important, but are also easily addressed at low economic cost, while not affecting the main conclusions of the reviewed studies and certainly not affecting their technical feasibility. A more thorough review reveals that all of the issues have already been addressed in the engineering and modelling literature. Nuclear power, which the authors have evaluated positively elsewhere, faces other, genuine feasibility problems, such as the finiteness of uranium resources and a reliance on unproven technologies in the medium- to long-term. Energy systems based on renewables, on the other hand, are not only feasible, but already economically viable and decreasing in cost every year.
Full-text available
We develop roadmaps to transform the all-purpose energy infrastructures (electricity, transportation, heating/cooling, industry, agriculture/forestry/fishing) of 139 countries to ones powered by wind, water, and sunlight (WWS). The roadmaps envision 80% conversion by 2030 and 100% by 2050. WWS not only replaces business-as-usual (BAU) power, but also reduces it ∼42.5% because the work: energy ratio of WWS electricity exceeds that of combustion (23.0%), WWS requires no mining, transporting, or processing of fuels (12.6%), and WWS end-use efficiency is assumed to exceed that of BAU (6.9%). Converting may create ∼24.3 million more permanent, full-time jobs than jobs lost. It may avoid ∼4.6 million/year premature air-pollution deaths today and ∼3.5 million/year in 2050; ∼$22.8 trillion/year (12.7 ¢/kWh-BAU-all-energy) in 2050 air-pollution costs; and ∼$28.5 trillion/year (15.8 ¢/kWh-BAU-all-energy) in 2050 climate costs. Transitioning should also stabilize energy prices because fuel costs are zero, reduce power disruption and increase access to energy by decentralizing power, and avoid 1.5°C global warming.
• Download high-res image (331KB) • Download full-size image Clara F. Heuberger is a PhD student in the Centre for Process Systems Engineering and the Centre for Environmental Policy at Imperial College London. She holds a Bachelors and Masters in Mechanical Engineering from RWTH Aachen University. Clara studied and conducted research abroad at Carnegie Mellon University Department of Chemical Engineering and Department of Engineering and Public Policy. • Download high-res image (156KB) • Download full-size image Niall Mac Dowell is a Senior Lecturer at Imperial College London, where he currently leads the Clean Fossil and Bioenergy Research Group with Bachelors and Doctoral degrees in Chemical Engineering. He is a Chartered Engineer with the IChemE and is a Member of the Royal Society of Chemistry.
Nuclear energy is widely regarded as a controversial technology that polarizes public opinion. Guided by the scientific literacy and cognitive miser models, this study systematically identified and examined the magnitude of the effects of 19 predictors on public perceptions of benefits, risks, and acceptance of nuclear energy. We meta-analysed 34 empirical studies, representing a total sample of 32,938 participants and 129 independent correlations. The findings demonstrated that trust substantially affected public perception of benefits regarding nuclear energy. Sex, education, public perception of benefits regarding nuclear energy, trust, and public deliberation substantially influenced public perception of risks regarding nuclear energy. Moreover, sex, education, public perceptions of benefits, risks and costs regarding nuclear energy, knowledge, and trust substantially affected public acceptance of nuclear energy. Country of sample and time period of data collection moderated public perceptions of benefits, risks, and acceptance of nuclear energy. Implications for future research are discussed.
All major industrialized countries are failing to meet the pledges they made to cut greenhouse-gas emissions, warn David G. Victor and colleagues.