Abstract
The electricity infrastructure in many developed countries requires significant investment
to meet ambitious carbon emissions reduction targets, and to bridge the gap between
future supply and demand. Perennial energy crops have the potential to deliver electricity
generation capacity while reducing carbon emissions, leading to polices supporting the
adoption of these crops. In the UK, for example, support has been in place over the past
decade, although uptake and the market development have so far been relatively modest.
This paper combines biophysical and socio-economic process representations within an
agent-based model (ABM), to offer insights into the dynamics of the development of the
perennial energy crop market. Against a changing policy landscape, several potential
policy scenarios are developed to evaluate the cost-effectiveness of the market in providing
a source of low carbon renewable electricity, and to achieve carbon emissions abatement.
The results demonstrate the key role of both energy and agricultural policies in stimulating
the rate and level of uptake; consequently influencing the cost-effectiveness of these
measures. The UK example shows that energy crops have the potential to deliver significant
emissions abatement (up to 24 Mt carbon dioxide equivalent year 1, 4% of 2013 UK
total emissions), and renewable electricity (up to 29 TWh year 1, 8% of UK electricity or 3%
of primary energy demand), but a holistic assessment of related policies is needed to
ensure that support is cost-effective. However, recent policy developments suggest that
domestically grown perennial energy crops will only play a niche role (<0.2%) of the UK
energy balance.
© 2015 Elsevier Ltd. All rights reserved.
Original language | English |
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Pages (from-to) | 3 - 12 |
Journal | Biomass and Bioenergy |
Volume | 82 |
DOIs | |
Publication status | Print publication - 2015 |
Bibliographical note
1028477Keywords
- Agent-based model
- Energy crops
- Energy policy
- Land use
- Miscanthus
- Short-rotation coppice