Geographies of environment and sustainability - Energy
I. Energy Production and Environmental Impact
Greenhouse Gas Emissions
Environmental Degradation
Pollution, climate change, waste, water scarcity (water cooling nuclear power stations), oil spills, oil mining - which also applies to renewable energy with large solar farms needing space to operate
Sustainable Development
Need for clean energy to avoid poverty and promote development, addressing inequality and reducing environmental and resource pressures
Critical Energy Geographies
Power and Control
Energy use linked to control over space and power dynamics (Calvert, 2016)
Inequality
Unequal distribution of non-renewable energy impacts and responsibilities
Socio-technical Systems - the social and the technical are intimately intertwined
Interconnected Nature
Energy transitions are social transitions (Bridge et al., 2018) with an importance of thinking about co-constitution (the technical shapes the social and the social shapes the technical)
Example: The Car (the technical affects the social)
The Technical effects the Social
Space, Place, and Energy Production
Why should we look at Space and Place?
Local Resistance
NIMBY effect against large local energy projects. It can also create challenges towards places where people have place attachments may not want large energy farms in their area - do not want their 'ideaolised places to become polluted with energy technologies'
VII. Efficiency and Everyday Practices
Energy Efficiency Critique
Efficiency alone may not achieve sustainability goals (Shove, 2018)
Daily Energy Use
Impact of everyday technologies like cook stoves
VIII. Policy and Social Justice
Home and Transport
Collective living approaches (Bouzarovski, 2022)
Social injustice in transport policies (Mullen and Marsden, 2016)
Just Transitions (Issues of inequality and injustice in energy systems)
Broader justice in labor transitions beyond job replacement (Luke, 2022)
Critiquing current energy transition approaches
73% of anthropogenic GHG emissions
This includes household energy, energy needed for the production, transport sector and resources needed to harvest energy.
Driving climate change with a lack of transitions as practices involving energy are deeply embedded into our everyday lives
Goals 7 and 13 of the sustainable development goals
“Energy production and use translates directly into control over space… such that… energy is an important physical medium through which to tilt the balance of power and exert control” (Calvert, 2016: 111)
Energy geographers argue over who has power and exerts control over energy and access to cleaner energy - whos responsibility is it?, and who will suffer the consequences of non-renewable energy (e.g. environmental degradation of ecosystems, and this outcome is not equal across space). (Bridge et al. 2018)
Geographies of energy transition
Re-materialising energy - energy shapes material and spatial forms
It is becoming increasingly important as climate change importance moves up the agenda. Focus on ‘energy’ - an abstraction understood narrowly in terms of ‘the ability to do work’ constraining in terms of social analysis (Bridge et al. 2018) – the thinking space within people to engage with energy.
Although, geographically, the study of energy is being increasingly recognized as the “heart of the geographical tradition”. Now it is seen as the techno side deeply intertwined with the social and political side**. (Calvert, 2016)**
“Energy as a largely ignored yet crucial factor in theorizing contemporary social and political formations” (Huber, 2015: 1) Energy must be thought of through the technical side nd the social systems and shifting away work focused on energy as only a technical phenomenon
Shaped by and shapes societal practices and politics. Everday transport, further away settlement, employment
It has also had global political and economic effects - particularly with the economics associated with oil production and consumption (used for the car)
The car still shapes global geopolitics - and effects political relationships around oil that is used for the use of the car
Russia, USA, Europe, Middle East etc
Shapes what we can and cannot do in our everday lives
The Social affects the Technical
(Shove et al. 2012)
Development of the car occured over a meriad of social processes and interaction ivolving people, politics, power and social engagement
Early users of cars used them for leisure, as they were not reliable so were not for functional transport
People then began to want to use the car for utility in everyday lives that it became necessary to develop the reliability of the car
Development was triggered by social pressure and new needs (affordability, reliability) - which only came through the initial engagement with the social
Why is it important to look at environmental sustainability through socio-technical systems?
Energy systems and the technology involved are not purely technical systems, their development calls for political negotiation, social engagement and material and economic changes - that effect the social.
It is important to understand the processes through which environmental impacts of energy systems are created and sustained and how challenges might be addressed. This represents a useful and important perspective for thinking about energy systems
. For example, the idea of the Electric Car fits in with society's idea of a sustainable individual private transport vehicle that fit into our current infrastructure, without being a whole brand new idea (such as 20-minute communities)
Sustainably masking technologies such as the 'electric car' and wind farms fit into our ideas and reluctancy to change and they dominate ideas surrounding energy transitions in the UK
Rather than thinking of de-centralised energy solutions, we are focusing on large scale technologies that can be distributed through existing centralised systems
Geographic Constraints
Space and place can restrain access to climatic conditions, and resources needed for energy production (particularly wind, hydropower and geothermal energy.
Recognizing spatial difference brings attention to the different priorities and understandings of energy problems. (Bridge et al. 2018; 2013)
Importance of understanding the enactment of every day practices in different places for energy systems across different socio-cultural contexts. (Watson et al. 2012)
Interconnections across space - focus on energy and spatial distributions can be revealing for thinking about energy systems and their envrionmental impact across space (Barrett et al. 2013)
Three main ways at looking at Energy systems across Space and Place
Spatial Differences
(Bridge et al. 2018; 2013)
As a global unit, we should be focusing on differences in energy availability and demand, and focusing on communities who do not have access to energy and how this can be achieved (across the global North and South).
We must understand different issues for different groups of people, and global environmental problems and work out where our priorities should be for different areas that will socially benefit everyone
Teachnologies and challenges of energy systems must be looked at on Local, National (differences between North and South wales – rural and urban) and Global scales and determine who must take responsibility and look at the levels of priorities.
In places that do have sufficient energy systems set up, we should be considering how we can make that more sustainable (security, sustainable, affordability and equity)
But in places (seen more in the Global South), where not everyone has access to energy initially - we must prioritise energy access in order to improve livelihoods
Wales - Southern Population - with areas in Mid Wales being sparsely populated - transition strategies are going to look different for both of these perspectives
Rural populations drive much further distances than those in the higher populated areas - with the introduction of electric cars may spark concerns within these communities due to range concerns, lack of infrastructure etc
Enactment of everyday energy practices across space and the importance of cultural specificity
Energy and Spatial Distributions - understanding interconnections across space - focus on energy and spatial distributions can be revealing for thinking about energy systems (Barrett et al. 2013)
We need to understand how energy technologies are actually used as part of everyday lives in order to understand how we might achieve transitions.
Example: Cook Stoves (Watson et al. 2012)
Many people globally use cookstoves - but not just for food (warmth, central social function, reliance on phyiscal fuel and not billing for fuel) – despite them being heavily polluting due to the face that they are locally embedded practices. These have been adapted for use by communites for their everday use, and this is overriding envrionmental harm.
SDG 7 highlights how more than 40% of the world's population, around 3 billion people rely on cookstoves which are regarded as kind of polluting and use unhealthy fuels
So we must be aware of spatial and culture differences and what this could mean for envision transitions to energy systems.
But efforts to facilitate the penetration of new alternative technologies for cooking have been really dismally low , despite global efforts at technology transfer. What this shows is the difficulty of supporting transitions to cleaner forms of energy in home cooking.
(Davis and Caldeira, 2010)
Potential for different forms of energy to be developed in different places around the world (Jewell, 2010)
Davis and Calderia (2010) highlight how emissions from activities like manufacturing, aviation, shipping, and the production of goods consumed in the UK have been outsourced to other countries. When the UK measures its success in reducing emissions, it only counts the emissions produced within its borders (territorial emissions). This means it ignores the emissions created elsewhere to produce the goods consumed in the UK.
As a result, past policies haven't fully addressed or accounted for the environmental impact of the UK's consumption, overlooking measures like border taxes that would include these outsourced emissions in the UK’s climate targets.
This is now starting to change with some policies that are bringing this into more mainstream thinking about what we need to do to address our long term targets for climate change.
We need to critically engage with the way targets are set and the spatial boundaries that are used to underpin them - and the interconnections that obscure them
Example: Nuclear Energy because this forms a major part of net zero transmission plans at international and national levels. But there are multiple embedded assumptions about global capacities for the development of nuclear energy.
Jewell (2010) -
Jewell evaluates 52 newcomer countries and identifies the technical, economic, and political factors influencing their readiness for nuclear power. Jewell finds that only 10 of these countries have the necessary characteristics to likely develop nuclear energy successfully. The study highlights the importance of having robust infrastructure, financial resources, and political stability for launching and sustaining nuclear programs which are all characteristics that have historically allowed for development of nuclear energy
Ideas that we have for transitions will be possible at different scales, using different strategies in different places
Energy Justice - issues of inequality and injustice in energy systems
Energy Justice (Bray and Ford, 2021)
Energy and Materiality
We need to look at how energy is as a material, its physicality.
The reason is this has been developed as to highlight the materiality of energy, because it's very often that energy is being characterised, thought about and dealt with in terms of an abstraction and as a monetary equivalent (quality of dealing with ideas rather than events)
So it's often thought about in terms of kilowatt hours, temperatures or tons of oil equivalent or other units of measurement that we apply to energy.
Geographers are trying to surface Energy as a material thing.
Bridge et al. (2018) - the importance of rematerializing energy production and consumption
With reference to specific materials that provide society with energy, and how social practices are involved in capturing and using energy.
Energy infrastructures (Huber, 2015)
Energy sources and landscapes
Energy in everyday life
People do not relate to energy in the abstract but through specific energy services (such as thermal comfort and mobility - cars, the use of technology)
These are shaped by social and material constructs
Experiences in terms of mobility are really shaped by the distances between our homes and our workplaces, pavements, publics transport etc and the costs
In the case of warmth and cooling, our experiences are shaped by the age and the type of building, how we decide to dress for the temperature, our health, age etc
These are embodied aspects that alter our experiences with interactions with energy systems.
Geographers determine that the abstract is inadequate
Case study example:
the response from the European Union and the chief executive of the International Energy Agency, Fatih Birol, who in response to the energy crisis and the rise in prices and the shortage of gas within Europe, called on people to turn down their thermostats by one degree.
He's working with an understanding of energy in the abstract, not in the material embodied experiences of people. So if he was drawing on a lot of geographical research, he'd realise that people don't engage their thermostats necessarily in that way.
People turn their thermostats up and down depending on whether they are hot or cold it is not a set value
Thinking about how we use energy has really important implications for what we do within policy and governance to address these major issues.
Many papers aim to re materialise energy in terms of thinking about how energy infrastructures fundamentally reconfigure our lives.
Huber (2015)
Huber examines how the materiality of energy is constitutive in the social production of urbanisation, and the infrastructures that make modern life possible
He uses this to highlight how these particular configurations also create lock in to the existing systems that we have (e.g. transport systems). He uses it to talk about understanding energy systems in this way can help us to think about the problems and challenges of transitions.
Highlighted how electricity networks, gas pipelines, transport networks combine in very specific ways to make particular forms of living, in this case urbanisation and urban living possible.
Hydrogen to fuel our homes and our cars, or for our homes to use the existing gas network infrastructure in a different way that could be low carbon. So instead of natural gas through the gas pipelines, piping hydrogen.
This is being contested, particularly because hydrogen is very difficult at the moment to produce in a low carbon way - and making low carbon hydrogen may just offset original emissions.
Huber also highlights how road networks in the UK have been developed focuses on connecting up urban contexts and the major cities. This greatly influences where people chose to live and what they chose to do
Walker and Cass (2007)
Electrification - exchanging one form of energy with another with electronic charging points at petrol stations fitting perfectly into existing infrastructure
They highlight what is termed as the hyper size ability of renewable energy. So the idea that renewable energy such as solar and wind can be deployed at very large scale (offshore wind farms or large solar farms in the desert), but they can also be developed at much smaller scales as well.
Such as rooftop solar or the solar arrays, or simply solar powered electronic device chargers.
The materiality of renewable energy makes different kinds of spatial distributions and scales imaginable (e.g. decentralized)
In the paper, they also link those concepts of hyper size ability with different ways of people owning and producing energy - decentralizing energy
They argue this is a distinctive characteristic of renewable energy that is not readily realised by other energy technologies,
Geographers have done a huge amount of work to investigate how energy systems have fundamentally reconfigured energy landscapes around the world.
These flows of energy that provide the services we use (warmth and cooling and mobility and computer power) don't exist in abstract forms, so they take the shape and character of particular materials of oil, coal and wood or capturable things such as solar, wind and hydroelectric power
Although, for capturable renewables, a particular landscape is required: places (narrow valleys for hydroelectric dams, uplands for the capture and conversion of wind) - which often isn't where the majority of the population lives
Huber (2015) -
Energy Sources and Landscapes
Explains how geographers have taken extensive fieldwork based research that examines how different places that are affected and shaped by processes of energy extraction.
Addresses issues including the political ecology of oil in Nigeria.
Social controversies over wind energy in the UK and the US, and also biofuel production space.
Mountaintop removal in Appalachia
Where are the resources are extracted from and who benefits from from them, who consumes them?
Huber (2015) argues that in combination, energy extraction often entails the physical displacement of populations and communities.
Also, those who remain in places who suffer the slow violence of landscape destruction, water contamination and livelihood disruption
He argues that this research as a whole reveals that energy underpinning our lives is often made possible through violence (physical and social) to both human and non-human populations.
Transitions in energy systems have to be connected to social and political transitions that foreground justice.
Energy justice
Envrironmental justice
Climate justice
(Jenkins et al. 2021t
Geographical work on energy justice concerns multiple issues spanning (Jenkins et al. 2021):
Work evaluating where injustices emerge (distribution)
Work examining which sections of society are affected and marginalized or excluded in decision-making (recognition)
Work identifying processes for remediation (procedural justice) in order to reveal and reduce injustices
Procedural justice - working on identifying the processes for remediation in order to reveal and reduce injustices.
Distributional justice - looking at where justice or injustices emerge in terms of the distribution, the benefits and the burdens of energy, whether that's consumption or extraction
Recognition justice - recognising and examining and exploring which sections of society are affected and marginalised or excluded in decision making or considerations about forms of energy, and also recognising the diversity of experiences and needs that people have.
Example
There's inequality and unequal distribution of benefits and burdens on costs across society.
Energy is crucial and central to most, if not all, of the Sustainable Development Goals underpins much of our ability to live well, it connects to vast aspects of life and well-being.
Example
There's negative effects of energy siting, which disproportionately affects communities that are already marginalised in some way, might be through poverty or race or gender or mixture of those.
these issues, um, exist across and within the global South and the global North context.
South
North
Environmental justice movement came out of the US, um, as, uh, huge response to the sighting of industries and toxic waste facilities, which caused disproportional disadvantage to black, indigenous and people of colour.
(Cotton, 2017)
In the US and the UK, there's been multiple social movements arising around fracking and the issue of gas extraction through fracking, and those issues, including groundwater pollution, earthquakes and increased heavy traffic which has provoked protests
Bhadra (2013)
Fracking was banned, but the ban was lifted by Prime Minister Liz Truss
In India, the development of new nuclear has come under huge amount of scrutiny for the lack of attention to procedural and distributional justice issues as well.
Bhadra discuss the highly contentious nature of nuclear development and also highlights how local populations have been displaced, livelihoods have been lost, and those locally to these um, facilities have experienced other negative and environmental injustices.
In a lot of places where lucrative fossil fuels are extracted and it's often seen as a resource curse.
Where these issues where these materials are extracted, um, the local people do not see much of the benefit, but they do normally bear the brunt of, um, crackdowns and violence.
Endres (1990)
Endres looks at how nuclear facilities and extractive practices, for example,
The extraction of uranium for nuclear has been unevenly distributed to the U.S. and Canadian context, so often on Indigenous and First Nations lands.
Endres looks at how lands and livelihoods have been overwhelmingly implicated in the forms of nuclear production over time.
And he seeks to show how these distributional inequalities have been created and produced through social processes, um, that have made this possible.
First Nation lands have been constructed as wastelands and official and institutional documents and political policy and industry documents.,
Indigenous populations - evidence of the effects of acute and low level long-term exposure to radioactivity – e.g. cancers, blood diseases, contaminated landscapes beyond use
Energy justice as central to social justice (Bridge et al. 2018)
Ties between sustainable societies and ‘just’ societies – applied to energy (Agyeman, 2003; Bickerstaff et al. 2013)
Framing Transitions
Socio-technical transitions
Bridge et al. (2018)
Energy trilemma
Affordability – is it cost efficient and can all people afford to uphold the prices of energy to heat their home and cook food etc
Security – guaranteed safe access to energy, can be threatened by limited resources, political issues (fallouts between countries, worker strikes, political disputes etc)
Sustainability – can this energy be used in the future with little to no environmental degradation?
Energy transitions are required to achieve these three different aims of security, sustainability and affordability.
The trilemma really frames energy transitions as about moving towards systems that address these different priorities in combination.
To know what the key issues are in different regions or areas, and indicates how each of these issues can pull decision makers on all scales.
So they argue that there are three reasons why we need to engage critically with the energy trilemma.
1.) The three goals all involve changes to the status quo and different vested interests (not independent of existing structures). We are starting from a positions where people already have vested interests and reasons for wanting/not wanting change
2.) Social power is unevenly distributed. Different interest groups have differential power in terms of their ability to shape and influence things
3.) Some of the elements are absolutes (e.g. ecosystem integrity) and cannot be traded off - ncessarily involves collaboration, conflict, and cooperation
These include policies, investment from firms, and expectations of citizens. What is our expectation for having energy at our fingertips?
So such changes will create winners and losers, and that will be resisted by those who stand to lose or think they stand to lose for example, fossil fuel companies
This stands globally, and also nationally at UK level. Large companies bring employment so policy makers can be less harsh
A large energy corporation operating at a global scale has infinitely more power and influence that a citizen grappling with issues of affordability.
Some of the elements in the different systems can't be traded off in order to reach a compromise.
So you can't really trade off aspects of environmental sustainability with aspects of energy security, because at some point - the Environment will reach a tipping point
Energy Transitions Goals Example - Conflict (environmental sustainability)
Many governments around the world are focused on net zero.
Net zero encompasses the idea of absorbing emissions still produced through all the different forms of geoengineering (carbon capture, carbon sequestration, tree planting) to offset emissions and allow our populations to not have to change behaviour of lifestyle choices
While some activists and scientists and researchers are calling for real zero (absolute zero.)
But real zero is about reducing emissions to zero, full stop (not offsetting a proportion of ongoing emissions.)
Net zero was originally created for the use of processes which cannot be replaced which a low carbon alternative
Once this idea of net zero really took purchase politically, it was used to not take the urgent actions needed and claim technologies that will sort it out.
Stopping organisations from needing to engage with the more politically challenging aspects of behaviour change and demand reduction.
This idea bled into transition plans, which can still be called net zero while still emitting carbon dioxide.
It has been used to really support the continuation of using gas generation or not decarbonising the whole system fast enough. This is locking us into a techno-centric approach.
Dyke et al. 2021 - Concept of Net Zero is a Dangerous Trap
Completion requirements
Geographers have highlighted is that there are different ways of framing these challenges, and these have important implications for the solutions we develop.
Social Justice
Bridge et al. (2018) argued that it's important to add justice into into the mix, as this is a further framing principle for understanding transitions.
Brings to light the ways that these different dimensions also inequalities and power relations and energy transitions can both resolve and or perpetuate injustices within current social systems.
The Multi-Level Perspective (MLP) (Geels et al., 2017)
Perspective that really illustrates how we might think about processes of energy transition, using geographical ideas and concepts,. It's a very prevalent and widely used theory of transition within um energy transitions.
They're looking at different levels and different scales but it's really important to not get multilevel perspective confused with multi-level governance.
The multi-level perspective is classed as a sociotechnical approach to analysing energy transitions.
This perspective looks at technologies involved in transitions, but it also looks at how technologies co evolve with social processes.
From infrastructures of global economic markets, right down to user practices and everyday lives and the cultural meanings associated and attributed to energy
This perspective has three parts:
Landscape
Regime
Niches
Defines a particular element of the system that is considered as the exogenous contexts (issues outside of the energy system e.g. Climate Change, Neoliberal politics)
Refers to existing and stable structures within any system that you're looking at. It includes both social and technical elements (energy companies, market structures or gas grid, road network) - status quo changes spatially in terms of materiality and socio-political infrastructure is in place
Niche refers to innovations, this is where this theory thinks that most change comes from. You need to have change in its inception happening in the niche, which can filter up to destabilise and reconfigure a regime in some way. So niche innovations can be technological, for example, solar PVS, or they can be social and political like forms of community organising (grassroots innovations).
This graph shows how different sectors and different levels interact through a temporal process (phase 1, phase 2 etc) of transition
The theory argues that the transition processes move through these phases, with different things happening in the niche innovation level within the sociotechnical regime and within the landscape level.
And these all interact together to create change.
1.) In phase one, innovations can emerge in niches.
So on the fringe of existing regimes. Innovation networks sometimes unstable, uncertain or experimental and fragile. (E.g iPhone was once a niche)
2.) In phase two, innovation is moving up.
And the innovation enters small market niches that provides resources for further developments and also specialisation.
Innovations develop a trajectory of their own with the dominant design emerging and with expectations and associated roles
3.) In phase three, those innovations really breaking through to be more widely used
Sometimes, these innovations actually competing head on with an established regime.
This depends on
Interaction between many factors:
The performance of niche innovations.
How readily they are taken up
Development of complementary technologies and infrastructures as well.
Can also interact with persistent internal problems e.g. urban air quality, landscape pressures such as rising oil prices or nuclear disasters.
4.) In phase four, it is really characterised by regime substitution.
The widespread adoption of new innovations.
Is applied to real life examples to explore how technological change has happened through to bigger system level,
(Geels et al., 2017) - Case Example
The German Electricity Transition
Focus on transitions in renewable energy from 1990-2016 (RETs - renewable energy technologies)
• Phase 1 niche – 1970s and 80s
• Nurturing of RETs through the 1990s – Renewable energy moved out of being completely a niche idea and to intersecting with the regime in some way, resulting insignificant deployment of onshore wind.
• 2005-2011 onwards saw continued growth in RETs and surge in solar PV within Germany
Germany was praised for having major successes for developing low carbon transitions of the electricity sector (solar PV and wind energy).
Geels et al., looked at this transition through the MLP and argued that is happened through different phases that they identified
They link these technological changes to key policy and political developments that they argue facilitated the shift from niche to mainstream
1991 - Feed-in Law: obliged utilities to connect new renewable energy connections to the grid and oblige utilities to purchase the solar PV at 90% um, or renewable energy at 90% of the retail price from people who are producing
1998-2005 - Election of the Red-Green coalition: Green Party going to coalition with the Social Democratic Party, it created a favourable political climate for energy transition policy, which led to further developments in 2002.
2002 - Decision to phase out nuclear energy (withdrawn by reinstated in 2011)
2002 - Introduction of the Renewable energy act: fixed the premium of payments for electricity, gas, which is guaranteed over a 20 year period. This also created stability in the markets as well.
It provided even more support for development and deployment of renewable energy.
2011-2016 - Energiewende: effective framework for energy transition for Germany. Committed Germany to securing 80% of electricity from renewable energy by 2050
Geels et al. argued that these policy changes over time moved renewables from the niche into destabilising the existing regime.
Landscape level (exogenous influencers)
1970s Oil Crisis - created an early niche for renewable technologies
Chernobyl and Fukushima nuclear meltdowns - hardening of pre-existing anti-nuclear sentiment amongst the public and within government
The reunification of Germany after the fall of the Berlin Wall in 1989
Offered an important opportunity for feed in law to, to be re to be introduced.
Energy companies, which would normally have been working hard were looking to the east and eastern markets so opened up.
Regime Level
Incumbent large electricity companies – the Big 4 solidify dominance intially
As RETs increasingly threaten make changes to their company structures and plans
But regime backlash leading to a slowing of the transition
In the 2017 paper, they highlight that low carbon transitions have less momentum in passenger transport, looking at whether petroleum fuelled auto mobility regime is still deeply entrenched.
Critques of MLP
(Bridge et al., 2013)
Basis for more critical readings – argued to lack engagement with some of the key geographical dimensions of transition within its analysis (e.g. Bridge et al. 2013)
Primary concerns are the 'unfolding of a temporal process'
"These concerns have tended to circumscribe any formal attention to space, place and geographical scale within conventional transitions theory.“ (Bridge et al., 2013: 333)
Bridge et al. discusses some geographical terms that can be used to address energy transitions, particularly those that are missed out when looking at energy transitions on a temporal scale (MLP)
Territoriality- social and political power across space
Spatial differentiation - equalization and differentiation
Landscape - assemblages of natural and cultural features
Scaling- active phenomenon of technologies /governance
Location - absolute and relative
Spatial embeddedness and path dependency
While justice is not defined in these concepts - it is implicit and comes through within the analysis
Landscape as a geographical concept within Bridge et al. 2013
Geographical take on landscape is focused on the material features of an area of land (natural and man made) and the cultural evaluation and the attachments people place onto a piece of land
Landscape and energy transitions
Energy landscapes (from oil fields to wind farms) are a product of social processes and the outcomes of conflict and negotiation
Energy system transitions require the re-appraisal of the form, function and value of familiar landscapes. (Bridge et al. 2013)
Bridge et al. (2013) highlight how low carbon transitions will be experienced by many as the ‘transformation of landscape’
Landscapes dedicated to fossil fuel and methane producing livestock production are be scrutinised by policy makers in ways that they could possibly offset emissions
However, landscapes dedicated to offsetting/sequestering carbon which provide opportunities for green energy, gain a new source of potential value and are targeted markets (the Scottish Highlands for Wind Energy)
Outside of the UK, another example of this is the potential for large solar farms in deserts (particularly in Africa)
Place attachments and emotional engagements with landscapes are important geographic ideas for understanding responses to changing energy landscapes
(Bridge et al. 2013)
“All resource landscapes rest on claims to property, and the authority to impose and defend a particular form of land use”.
(Bridge et al. 2018:22)
Policy arenas can sometimes characterise public opposition to wind projects (particularly in the UK) - stemming from NIMBY sentiments that can be reduced to economic self interest
Understanding the emotional embedment to landscape can often lead to a more productive engagement in analysing conflicts over energy
They suggest oil fields, nuclear plants and wind farms are expressions of the social power to impose energy production as a dominant land use - through deciding how that energy will be captured and where it will be distributed (so whom the resource landscape will actually serve)
Reflects relations of power
Landscape in Transitions
The German Electricity Transition
The Multi-Level Perspective analysis of the German electricity transition misses any sense of emotional and cultural connections to landscapes that shape people’s responses to change and transition in important ways.
They can affect the effectivity of transitions and their level of just and suitability of the trilemma - let alone challenges that may arise from it
Spatial differentiation not just about spatial variation but about the production of geographical difference
Relates to justice – not just about about identifying the presence of inequalities across space but looking at how they are created - moving beyond showing that there are differences in distribution and looking towards how and where these disparities are created
Spatial differentiation and energy transitions
Bridge et al. (2013) highlight how energy transitions will create new patterns of uneven development
Convergence (erosion of difference) – growing energy trading, technological diffusion, and the standardization of consumption norms driving growing energy intensity/demand.
Example: Standardisation of indoor temperatures around the world (Shove et al. 2014) Driving demand for not only heating but air conditioning
Example of production of difference – Bridge et al (2013) highlight the implications of transitions for economies predicated on the production or conversion of fossil fuels (e.g. OPEC countries).
The experience of transition of these countries will be different than countries which the demand for these fuels is seen.
Spatial Differentiation
The German Energy Transition
The German case can be used to highlight the production of spatial differentiation
e.g. solar PV deployed on a large scale despite Germany not having a particularly significant solar resource.
Relevant to thinking about how differences are produced through and productive of new forms of uneven development (Bridge et al. 2013)
In 2011, Germany made up 1/3 of global PV production
Shaped mainly by social, economical and political forms of development
Germany can capitalise on the emergence of new energy technologies - but there must be existing power dynamics, all of these are not covered by the MLP
Scaling
(Bridge et al. 2013)
Scale referring to material size and extent of phenomena (e.g. renewable energy technologies or government)
Scaling denotes this as an active process involving decision-making (Bridge et al. 2013)
Assumptions about scale pervade energy systems but are often unacknowledged
There are dominating ways in which energy symptoms are scaled as centralised (large and not controlled by the people)
Scaling - Decentralising
German Energy Transitions
Re-scaling in the German case - from the national grid and concentrated ownership to micro-sited generation and distributed ownership
German Government creating mechanisms to support large scale renewable developments, partly about slowing the pace of re-scaling .
Current Goals Energy Transition Goals
Energy transitions goals - The challenges for energy system transitions are characterized as a trilemma, balancing net zero targets and environmental sustainability with energy security and affordability (Bridge et al. 2018)
Transition scenarios (UK and many other places) - a mix of renewable energy technologies (in the UK offshore wind farms are prominent), electrification of heat and transport, carbon capture and storage (with applications for gas, bioenergy, and hydrogen). This is very centralised and technology-focused – it does not require much behavioural change and works around the way that we live our lives currently.
These are not purely technological, but political – and create debate about whether these energy transitions are truly sustainable or whether they simply still allow for large amounts of emissions due to inability to change currently lifestyle choices..
The 'net zero trap' - (Dyke et al., 2021) used as a political tool to offset carbon using technologies instead of just reducing initial emissions
Trading Off
(Bridge et al., 2018)
Critiquing current transitions to Net Zero – (Political context) – critique of current policy and political commitments approaches for reaching net zero as well as rollback on some commitments (Committee on Climate Change, 2024; Dyke et al. 2021)
Net zero encompasses the idea of capturing emissions, instead of directing us towards plans for transitions to decreasing emissions instead. So, Net Zero is politically allowing countries to continue with truly unsustainable choices – and masking it as being sustainable. This has been critiqued by climate activists, academics etc
(Bridge et al., 2018) highlight how this is related to the context for transitions in which movement towards any of the three goals implies a change to those existing structures and to the current status quo(e.g. fossil fuel companies and governments often heavily invested in fossil fuels like UK Plc and Norway for example).
So geographers like Bridge et al highlight how we are starting from a position where there are already lots of vested interests that have different reasons for wanting change or not wanting it – and for prioritising different aspects of the trilemma.
E.g. consumer groups might be more concerned with affordability and environmental NGOs with sustainability, while government might be more focused on issues of energy security and economic growth favouring trading off environmental sustainability for example.
Energy transitions involve changes to the status quo and affect different vested interests (Bridge et al. 2018) Trading off between security, sustainability and affordability.
Social power is unevenly distributed - different interest groups have differential power in terms of their ability to shape and influence things. So, there will be winners and losers within these transitions, and clearly within this, it will cause resistance towards this change from people who are losing in this situation.
Some things cannot be traded off – if environmental sustainability is not prioritized, and if it is lost – we cannot fix long-term damage to the environment. Environment will meet a tipping point and once it is traded off, we cannot prevent it from worsening
Bridge et al, 2018 also debates how within current transitions, there lies a lack of attention to social justice within the framings of the energy trilemma. There is erasure of social issues with current technology and this must be addressed in order to reach 100% sustainability.
Lack of attention to the social and political in general in transition plans, which has diverse implications for the policies and approaches that have been and are proposed
Spatial Differentiation
(Bridge et al. 2013)
Highlight how existing global inequalities are shaping transitions in ways that reproduce uneven patterns of development
If we look at the case of German energy transitions as an example to consider how geographical differences have been produced in the past and are being produced in new ways through contemporary transitions.
We know that in the case of the German transition Solar PV has been deployed on a huge scale despite Germany not having a particularly significant solar resource. In 2011 Germany accounted for almost one third of all global PV capacity despite lower latitudes
This highlights that geographical differences in energy systems are not in any simple way determined by physical or material features of particular places but by their economic, social and political forms of development.
And it directs us to think about how contemporary transitions like this one in Germany might be both produced by existing forms of uneven development and productive of new forms – as for example, particular places (like Germany) are able to capitalize on the benefits of new technologies and emergent industries, while others are not.
Far from creating more sustainable and socially just worlds some current approaches and plans are simply sustaining current relations along with their negative implications for lives around the world
Energy Efficiency
(Shove, 2018)
Home Energy Efficiency
(Bouzarovski, 2022)
‘National and international responses to climate change are dominated by policies that promote energy efficiency and by people who take this to be a self-evidently important thing to do’
Shove (2018: 779) argues that ‘far from being a solution, efficiency, as currently constituted, undermines that which it is expected to achieve’
Shove (2018: 779) asserts that ‘contemporary metrics reproduce understandings of energy as an all purpose resource, rather than as something which is generated and consumed in ways that are highly contingent, variable and historically specific.’
Efficiency programmes take current ideas of service for granted and only respond to existing ideas of ‘need’ - critical engagement with how energy is analysed and viewed. Looking at energy efficiency is about the same service but using less energy and we need to look at future developments and how we can apply energy efficiency to pre-existing technologies instead of creating new ways.
“the un-reflexive pursuit of energy efficiency is problematic not because it does not work, or because the benefits are absorbed elsewhere, as the rebound argument suggests, but because it does work… to sustain, perhaps escalate but never undermine, historically contingent but increasingly energy-intensive ways of life.(Shove, 2018: 786)
Shove does not argue that we need to abandon energy efficiency, but apply it to more essential and unique things that require it.
Relates to the ideas outlined in lecture 1 about critical engagement with how energy is thought about and analysed through abstractions – and how this has important consequences for what we do in terms of policy
So for Shove because energy is being thought about in the abstract – as an all purpose resource, rather than as something that is historically contingent - and that this is what’s driving efficiency policies – this leads to thinking about energy efficiency in terms of delivering the same service for less energy – and narrows the space to more fundamentally question our historically specific current ways of living - and future developments – such as the rise of the patio heater – with focus being given only to figuring out ways to meet ‘needs’ within our current ways living in more efficient ways.
Shove argues that the unreflexive pursuit of energy efficiency – (pursuit of energy efficiency without interrogating its real implications for sustainability) is problematic not because it doesn’t work but because it DOES work to sustain, escalate but never fundamentally question increasingly energy intensive ways of life – which are known to be unsustainable.
Shove doesn't suggest abandoning energy efficiency but rather rethinking its application. She argues that we should use energy efficiency measures only when they are truly necessary. Additionally, she emphasizes the importance of adopting approaches that promote lifestyle changes to reduce our overall energy needs. This means supporting programs that help people change their habits and ways of living to use less energy in the first place.
Bouzarovski focuses his critique more specifically on policies of home (infrastrucutre) energy efficiency and he does this as an example through which to develop a critique of the ways that many approaches to transition continue to depend upon ideas of ‘transitions’ and ‘justice’ that do very little to challenge existing highly inequal neoliberal capitalist systems – or the underlying structural causes of high carbon and often low quality housing
Using the example of end-use energy efficiency in residential buildings, Bouzarovski argues that current approaches to transition ‘may serve to accommodate and prolong the unfolding global crisis of climate degradation and social inequality, as opposed to fundamentally challenging the capitalist roots of energy and climate injustices’
This in part because they continue to perpetuate conceptions of home and services in terms of individuals and technical changes to homes preventing modes of transforming homes that focus more on collectives and bringing people together through transitions or engaging with the social dimensions of how we live in and could live in our homes in ways better aligned with lower energy use and sustainable forms of efficiency
“A critical engagement with dominant just transitions discourses and policies requires both a careful interrogation of the political economies of capitalism and a confrontation with the conceptualisations of justice itself” (Bouzarovski, 2022: 1014)
Bouzarovski argues that we need to focus less on the individual in the unit, but how we can look at living together and working together within housing.
Transport and Mobilities
(Mullen and Marsden, 2016)
Mullen and Marsden engage critically with dominant approaches in Britain to approaches to transition in sustainable transport – they argue that a tendency within analysis to only look at one dimension of the justice issues involved in transport serves to reproduce existing patterns of inequality
For example – transitions in private cars to electric vehicles - the overwhelming response has been to pursue techno-logical solutions to reduce tailpipe emissions and therefore tackle environmental injustice.
This approach to transition will reduce environmental injustice for those with highest exposure to air pollution (which affects poorer inhabitants of cities and towns the most)
On one level it has good outcomes in terms of environmental justice. And government money directed towards subsidizing purchases seems like a good policy both for environment and justice
However, if we look more holistically at the justice dimensions of mobility it is possible to see how placing emphasis on private cars as a key policy investment for environmental transitions serves to privilege those who have access to private vehicles – those tend to be people that are already relatively wealthy and who are then directly benefitting from the policy – but to access the subsidy and buy an electric car is far out of reach for the poorest or even for those with moderate incomes. And by focusing funding on this solution other investments such as improved walkways or development predicated on favoring and potentially subsidizing train travel are given far less focus.
Critique of existing policy approaches that privileges those with access to private vehicles and particular forms of living.
This is an environmental trade off for a affordability (causes challenges within the energy trilemma - Bridge et al,. 2018)
Shoukd we be looking at electrifying public forms of transport to make it more acessible and socially just?
Low emission zones and charges for higher emission cars is a direct injustice towards people who simply cannot afford a more economically beneficial car
Critique of 'just transitions'
(Luke, 2022)
Just transitions as an idea can also itself perpetuate existing systems that are unsustainable because they do not address underlying causes of either environmental or social degradation.
Luke (2022) argues that current labour markets have developed in contexts of racism and sexism – means that women and people of colour are aften in precarious work that is not unionized and does not have access to the recourse and forms of labour organization that are being utilized as a primary basis for ensuring just transitions
Need to move beyond these approaches
Geographers have been critical of current ideas of ’just’ transition (Luke 2022)
Just transitions was initially concerned with replacing jobs lost through necessary transitions, geographers have argued for the importance of expanding concepts of justice associated with labour and transitions
Luke (2022) – needs to go beyond replacement of jobs for those within existing fossil industries and work to challenge dominant labour relations through transition.
We need to use transitions to change labour relations, instead of just perpetuating them as they are socially unsustainable.