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This study aimed to analyse the advantages and challenges of the energy transition in an emerging economy such as Colombia via quantitative spatial panel data models using Colombian regions, which included departments from 2015 to 2023, to determine the main relationships between the energy transition and other variables, such as housing features, energy consumption and costs, fossil fuel use, mining, transportation activities, deforestation and livestock activity.
Technical summary
Energy transition is closely related to climate change and is helpful for achieving the main initiative in a broader strategy adopted by governments to contain global warming to 1.5°C above preindustrial levels by the middle of the century. This study uses different empirical methods as quantitative spatial panel data models to determine variables that impact energy transition considering that the limitations of this study are related to the availability of data in every region and information on specific actions to promote energy transition in the regions. The results revealed that regions with higher levels of households, electricity coverage, energy, gasoline and diesel consumption, mining activities, transportation dynamics, deforestation rates and livestock activities generate higher carbon dioxide emissions, whereas regions with greater stable forest and electric vehicle growth rates present lower carbon dioxide emissions. The findings of this study could allow us to formulate suitable public policies to promote just energy transition that could be founded on different knowledge fields, including the industry and productive sector and its role in cleaner production, environmentally friendly infrastructure and technology, building capacities to adopt present and future technological change and create robust regulatory frameworks for their adequate operation, while considering the features and economic activities of territories and the diversification of energy sources as a strategy to promote sustainable energy transition and control climate change. Future research could concentrate on including new variables as renewable energy prices, comparative studies with other Latin American and models to promote knowledge of energy transition and clean technologies.
Summary social promotion
Energy transition in departments in Colombia: An analysis with spatial econometrics.
Do societies with more extensive welfare states also perform better environmentally? Surprisingly, the empirical evidence for this relationship remains inconclusive. We focus on CO2 emissions in lower-income countries and argue that considering state capacity as a moderator helps achieving greater theoretical and empirical clarity in understanding when the welfare state – climate change mitigation relationship. We hypothesize that lower-income societies with more developed welfare states exhibit lower carbon emissions when they also have more state capacity. The underlying mechanism centers on the ability of the state to compensate losers from policy change and its enforcement power required for policy implementation. Using data on CO2 emissions, social protection, and labor market regulations, as well as state capacity in 66 lower-income countries since 2005, we find that carbon emissions tend to be lower in countries characterized both by a welfare state focused on reducing socio-economic inequality and high state capacity.
Chapter 5 delves into the relationship between humans and the natural environment. It focuses on three key aspects: (1) the context, which provides an idea of the importance of humans in relation to the natural environment on which they depend; (2) the reasons why human intervention in the natural environment is considered to have led to the so-called Anthropocene era; and (3) the ways in which intensive human intervention has fundamentally altered the balances in the biosphere and the effects of that. Scientific evidence of several possible planetary emergency scenarios is shown to inform managers, entrepreneurs, investors, consumers and public policy decision-making.
This contribution focuses on the abatement with hydrogen of CO2 and non-CO2 emissions. It is agenda-setting in two respects. Firstly, it challenges the globally accepted hydrocarbon sustainable aviation fuel (SAF) pathway to sustainability and recommends that our industry accelerates along the hydrogen pathway to ‘green’ aviation. Secondly, it reports a philosophical and analytical investigation of appropriate accuracy on abatement strategies for nitrogen oxides and contrails of large hydrogen airliners. For the second contribution, a comparison is made of nitrogen oxide emissions and contrail avoidance options of two hydrogen airliners and a conventional airliner of similar passenger capacity. The hydrogen aircraft are representative of the first and second innovation waves where the main difference is the weight of the hydrogen tanks. Flights of 1000, 2000, 4000 and 8000 nautical miles are explored. Cranfield’s state of the art simulators for propulsion system integration and gas turbine performance (Orion and Turbomatch) were used for this. There are two primary contributions to knowledge. The first is a new set of questions to be asked of SAF and hydrogen decarbonising features. The second is the quantification of the benefits from hydrogen on non-CO2 emissions. For the second generation of long-range hydrogen-fuelled aircraft having gas turbine propulsion, lighter tanks (needing less thrust and lower gas temperatures) are anticipated to reduce NOx emissions by over 20%; in the case of contrails, the preliminary findings indicate that regardless of the fuel, contrails could largely be avoided with fuel-burn penalties of a few per cent. Mitigating action is only needed for a small fraction of flights. For conventional aircraft this penalty results in more CO2, while for hydrogen aircraft the additional emission is water vapour. The conclusion is that our research community should continue to consider hydrogen as the key ‘greening’ option for aviation, notwithstanding the very significant costs of transition.
This paper tests the pollution emissions and institutional quality nexus in Africa. Specifically, we analyze the effect of the political regime and the quality of political governance on CO2 emissions. To control for endogeneity, we apply the system generalized method of moments on a dynamic panel of African countries over the period 1996–2020. The key finding suggests that better institutions have a negative and significant effect on pollution in Africa. The findings also validate the environmental Kuznets curve hypothesis. Moreover, the results support the pollution haven hypothesis. Finally, if digitalization significantly curbs pollution, then industrialization, natural resources, as well as the intensive use of energy, are considered as positive predictors. All the sensitivity and robustness tests globally validate the strength of the negative association between the good quality of institutions and the level of polluting emissions in Africa. The results call for some policy recommendations in environmental regulation for African economies.
Estimates of global and national emissions of carbon dioxide (CO2) are important for scientific understanding and public policy on global climate change. Estimates published annually often see revisions of estimates from previous years. Revisions of data on CO2 emissions reflect revisions of the energy data from which CO2 emissions are estimated. Learning is taking place as missing values are compiled, estimated values are revised, and data management systems are updated. Revisions are a frequent feature of the database. Revisions are widespread among countries, commodities, and transactions. We have examined 11 annual reports of the United Nations Energy Statistics Database (those published from 2010 to 2020) to see in the detailed statistics what values are being changed and what are the magnitudes and patterns of change. They are most common in recent years, among developed countries, and among data on liquid fuels. Revisions are generally small and there are no indications of systematic manipulation or bias. Revisions of specific numbers are believed to represent improvements in accuracy but lack of revisions does not point toward accuracy. This examination of revisions does not permit by itself a quantitative estimate of the data uncertainty but it does suggest that the estimates of global and national totals of CO2 emissions are generally consistent and that both absolute values and trends are reliable over time and sufficiently accurate for scientific understanding and public policy.
The main purpose of this paper is to analyze the contribution of land capital to the growth of emissions and income per capita in the long run. We collect new satellite data from the Earth Observatory to obtain estimates of the Enhanced Vegetation Index at the country level for the period 2000–2015. We use these data and the World Bank wealth estimates of natural capital to calibrate and empirically test an extension of the Green Solow model with land degradation and land capital investment. We show that the model is consistent with the cross-country variation in growth rates of carbon emissions per capita and find that there is convergence at the global level, with the contribution of land capital investment to the growth of emissions being negative and significant in all specifications.
This chapter repositions the debate on dual pricing as part of the bigger challenge of combating climate change. It addresses dual pricing from the perspective of the broader task of reforming environmentally harmful fossil fuel subsidies. The chapter moves beyond the potentially discriminatory nature of dual pricing to lay out options for disciplining dual-pricing practices in the WTO system in the grounds of their negative environmental impact. After providing some background, the chapter explores two main avenues for dealing with dual pricing: it first discusses what possibilities exist under current WTO rules, and then it explores what action the WTO can take beyond its current legal toolkit in the wider context of fossil fuel subsidy reform. The key argument is that the WTO can be a crucial actor in eliminating dual-pricing policies and can facilitate and significantly contribute to fossil fuel subsidy reform.
Liquefied natural gas (LNG) offers negligible NOx and SOx emissions as well as reductions in CO2 compared with other liquid hydrocarbons. LNG is a significant player in the global energy mix, with a projection of 40% increase in demand for the next two decades. It is anticipated that the expected rise in demand will cause the fleet of LNG carriers (LNGC) to expand. This work concentrates on steam-powered LNGC, which accounted for 47% of the LNGC fleet in 2018. It performs an empirical analysis of continuous monitoring data that provide high levels of accuracy and transparency. The analysis is done on data collected from 40 LNGCs for over a year to estimate the fleet's operational profile, fuel mix and energy performance. The findings of this work are relevant for bottom-up analysis and simulation models that depend on technical assumptions, but also for emission studies such as the upcoming Fourth International Maritime Organization Greenhouse Gases study.
This chapter provides the fundamentals of the relation between energy and climate change, presenting: (i) The scientific evidence that climate change is occurring; (ii) How human use of energy resources contributes to climate change; (iii) How current patterns in global energy use are expected to affect future levels of greenhouse gas emissions. It then outlines the current and expected future impacts of climate change, and presents strategies that can be followed to both mitigate and adapt to the worst expected impacts. To conclude, the chapter discusses the global institutional process to respond to climate, including successes and remaining challenges.
This chapter first illustrates the fundamental characteristics of coal, including: (i) History of coal; (ii) Where coal resources are currently located across the globe; (iii) Technological aspects of coal exploration, production and transport; (iv) Global coal production, consumption and trade trends. It then outlines the environmental issues associated with the utilization of coal in electricity generation and heating. To conclude, the chapter outlines the social and political issues related to the phase-out of coal.
Les pays en transition ont considérablement réduit leurs émissions de CO2 entre 1995 et 2003. Cette performance est-elle due à l'application d'une politique volontariste de la part des gouvernements, ou bien est-elle un simple effet collatéral de la transformation industrielle majeure subie par ces pays ? Nous tentons de répondre à cette question en développant deux équations structurelles pour la demande (émissions) et l'offre (politique) de pollution. L'équation de l'offre prend en compte la qualité institutionnelle du pays, aussi bien que les préférences des consommateurs pour la qualité de l'environnement. Nos résultats montrent que, toutes choses égales par ailleurs, l'effet d'échelle de la production seul aurait expliqué une augmentation de 31 % des émissions industrielles de CO2 dans les pays en transition entre 1995 et 2003, et l'effet de structure de la production aurait contribué à une augmentation de 8,4 % de ces émissions. Cependant, l'effet technique, qui découle de la sévérité de la politique environnementale, s'est traduit par une réduction de 58 % des émissions industrielles de CO2, et a permis ainsi une réduction nette des émissions industrielles de CO2 de 18 % en 2003 par rapport à 1995. Enfin, notre étude confirme l'importance des facteurs institutionnels dans l'explication des émissions dans les pays en transition.
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