Fossil fuel depletion and socio-economic scenarios: An integrated approach

The progressive reduction of high-quality-easy-to-extract energy is a widely recognized and already ongoing process. Although depletion studies for individual fuels are relatively abundant, few of them offer a global perspective of all energy sources and their potential future developments, and even...

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Veröffentlicht in:Energy (Oxford) 2014-12, Vol.77, p.641-666
Hauptverfasser: Capellán-Pérez, Iñigo, Mediavilla, Margarita, de Castro, Carlos, Carpintero, Óscar, Miguel, Luis Javier
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container_start_page 641
container_title Energy (Oxford)
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creator Capellán-Pérez, Iñigo
Mediavilla, Margarita
de Castro, Carlos
Carpintero, Óscar
Miguel, Luis Javier
description The progressive reduction of high-quality-easy-to-extract energy is a widely recognized and already ongoing process. Although depletion studies for individual fuels are relatively abundant, few of them offer a global perspective of all energy sources and their potential future developments, and even fewer include the demand of the socio-economic system. This paper presents an Economy-Energy-Environment model based on System Dynamics which integrates all those aspects: the physical restrictions (with peak estimations for oil, gas, coal and uranium), the techno-sustainable potential of renewable energy estimated by a novel top-down methodology, the socio-economic energy demands, the development of alternative technologies and the net CO2 emissions. We confront our model with the basic assumptions of previous Global Environmental Assessment (GEA) studies. The results show that demand-driven evolution, as performed in the past, might be unfeasible: strong energy-supply scarcity is found in the next two decades, especially in the transportation sector before 2020. Electricity generation is unable to fulfill its demand in 2025–2040, and a large expansion of electric renewable energies move us close to their limits. In order to find achievable scenarios, we are obliged to set hypotheses which are hardly used in GEA scenarios, such as zero or negative economic growth. •The paper presents and describes a new Energy–Economy–Environment global model.•GEA scenario dynamics have the potential to lead us to energy resource scarcity in the next 2 decades.•Global forecasts of international agencies show inconsistency in energy constraints.•Renewable energies are only partially able to replace fossil fuels depletion.•Climate change still reaches dangerous dimensions.
doi_str_mv 10.1016/j.energy.2014.09.063
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Although depletion studies for individual fuels are relatively abundant, few of them offer a global perspective of all energy sources and their potential future developments, and even fewer include the demand of the socio-economic system. This paper presents an Economy-Energy-Environment model based on System Dynamics which integrates all those aspects: the physical restrictions (with peak estimations for oil, gas, coal and uranium), the techno-sustainable potential of renewable energy estimated by a novel top-down methodology, the socio-economic energy demands, the development of alternative technologies and the net CO2 emissions. We confront our model with the basic assumptions of previous Global Environmental Assessment (GEA) studies. The results show that demand-driven evolution, as performed in the past, might be unfeasible: strong energy-supply scarcity is found in the next two decades, especially in the transportation sector before 2020. Electricity generation is unable to fulfill its demand in 2025–2040, and a large expansion of electric renewable energies move us close to their limits. 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subjects Alternative technology
Applied sciences
Coal
Demand
Depletion
Dynamical systems
Energy
Exact sciences and technology
Fossil fuel depletion
Global Environmental Assessment
Global warming
Natural gas
Peak oil
Reduction
Renewable energy
Renewable limits
System dynamics
title Fossil fuel depletion and socio-economic scenarios: An integrated approach
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