Economic and environmental assessment of seed and rhizome propagated Miscanthus in the UK

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Economic and environmental assessment of seed and rhizome propagated Miscanthus in the UK. / Hastings, Astley F.; Mos, Michal; Yesufu, Jalil A. et al.

In: Frontiers in Plant Science, Vol. 8, 1058, 30.06.2017.

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Harvard

Hastings, AF, Mos, M, Yesufu, JA, McCalmont, J, Schwarz, K-U, Shafiei, R, Ashman, C, Nunn, C, Schüle, H, Salvatore, C, Scalici, G, Scordia, D, Wagner, M & Clifton-Brown, J 2017, 'Economic and environmental assessment of seed and rhizome propagated Miscanthus in the UK', Frontiers in Plant Science, vol. 8, 1058. https://doi.org/10.3389/fpls.2017.01058

APA

Hastings, A. F., Mos, M., Yesufu, J. A., McCalmont, J., Schwarz, K-U., Shafiei, R., Ashman, C., Nunn, C., Schüle, H., Salvatore, C., Scalici, G., Scordia, D., Wagner, M., & Clifton-Brown, J. (2017). Economic and environmental assessment of seed and rhizome propagated Miscanthus in the UK. Frontiers in Plant Science, 8, [1058]. https://doi.org/10.3389/fpls.2017.01058

Vancouver

Hastings AF, Mos M, Yesufu JA, McCalmont J, Schwarz K-U, Shafiei R et al. Economic and environmental assessment of seed and rhizome propagated Miscanthus in the UK. Frontiers in Plant Science. 2017 Jun 30;8:1058. doi: 10.3389/fpls.2017.01058

Author

Hastings, Astley F. ; Mos, Michal ; Yesufu, Jalil A. et al. / Economic and environmental assessment of seed and rhizome propagated Miscanthus in the UK. In: Frontiers in Plant Science. 2017 ; Vol. 8.

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@article{3da412511d3f4e9bbf24618428e539cf,
title = "Economic and environmental assessment of seed and rhizome propagated Miscanthus in the UK",
abstract = "Growth in planted areas of Miscanthus for biomass in Europe has stagnated since 2010 due to technical challenges, economic barriers and environmental concerns. These limitations need to be overcome before biomass production from Miscanthus can expand to several million hectares. In this paper we consider the economic and environmental effects of introducing seed based hybrids as an alternative to clonal M. x giganteus (Mxg). The impact of seed based propagation and novel agronomy was compared with current Mxg cultivation and used in ten commercially relevant, field scale experiments planted between 2012 and 2014 in the UK, Germany and Ukraine. Economic and greenhouse gas (GHG) emissions costs were quantified for the following production chain: propagation, establishment, harvest, transportation, storage and fuel preparation (excluding soil carbon changes). The production and utilisation efficiency of seed and rhizome propagation were compared. Results show that new hybrid seed propagation significantly reduces establishment cost to below £900 ha-1. Calculated GHG emission costs for the seeds established via plugs, though relatively small, was higher than rhizomes because fossil fuels were assumed to heat glasshouses for raising seedling plugs (5.3 and 1.5 kg CO2 eq. C Mg (dry matter (DM))-1), respectively. Plastic mulch film reduced establishment time, improving crop economics. The breakeven yield was calculated to be 6 Mg DM ha-1 y-1, which is about half average UK yield for Mxg; with newer seeded hybrids reaching 16 Mg DM ha-1 in second year UK trials. These combined improvements will significantly increase crop profitability. The trade-offs between costs of production for the preparation of different feedstock formats show that bales are the best option for direct firing with the lowest transport costs (£0.04 Mg -1 km-1) and easy on-farm storage. However if pelleted fuel is required then chip harvesting is more economic. We show how current seed based propagation methods can increase the rate at which Miscanthus can be scaled up; ~x100 those of current rhizome propagation. These rapid ramp rates for biomass production are required to deliver a scalable and economic Miscanthus biomass fuel whose GHG emissions are ~1/20th those of natural gas per unit of heat.",
keywords = "Miscanthus, commercial scale, energy use, greenhouse gas costs, economic costs, agronomy, commercial scale trial, seed based propagation, harvesting techniques, pelleting, optimization of transport, biomass, bioeconomy",
author = "Hastings, {Astley F.} and Michal Mos and Yesufu, {Jalil A.} and Jon McCalmont and Kai-Uwe Schwarz and Reza Shafiei and Chris Ashman and Christopher Nunn and Heinrich Sch{\"u}le and Cosentino Salvatore and Giovanni Scalici and Danilo Scordia and Moritz Wagner and John Clifton-Brown",
year = "2017",
month = jun,
day = "30",
doi = "10.3389/fpls.2017.01058",
language = "English",
volume = "8",
journal = "Frontiers in Plant Science",
issn = "1664-462X",
publisher = "Frontiers Media",

}

RIS (suitable for import to EndNote) - Download

TY - JOUR

T1 - Economic and environmental assessment of seed and rhizome propagated Miscanthus in the UK

AU - Hastings, Astley F.

AU - Mos, Michal

AU - Yesufu, Jalil A.

AU - McCalmont, Jon

AU - Schwarz, Kai-Uwe

AU - Shafiei, Reza

AU - Ashman, Chris

AU - Nunn, Christopher

AU - Schüle, Heinrich

AU - Salvatore, Cosentino

AU - Scalici, Giovanni

AU - Scordia, Danilo

AU - Wagner, Moritz

AU - Clifton-Brown, John

PY - 2017/6/30

Y1 - 2017/6/30

N2 - Growth in planted areas of Miscanthus for biomass in Europe has stagnated since 2010 due to technical challenges, economic barriers and environmental concerns. These limitations need to be overcome before biomass production from Miscanthus can expand to several million hectares. In this paper we consider the economic and environmental effects of introducing seed based hybrids as an alternative to clonal M. x giganteus (Mxg). The impact of seed based propagation and novel agronomy was compared with current Mxg cultivation and used in ten commercially relevant, field scale experiments planted between 2012 and 2014 in the UK, Germany and Ukraine. Economic and greenhouse gas (GHG) emissions costs were quantified for the following production chain: propagation, establishment, harvest, transportation, storage and fuel preparation (excluding soil carbon changes). The production and utilisation efficiency of seed and rhizome propagation were compared. Results show that new hybrid seed propagation significantly reduces establishment cost to below £900 ha-1. Calculated GHG emission costs for the seeds established via plugs, though relatively small, was higher than rhizomes because fossil fuels were assumed to heat glasshouses for raising seedling plugs (5.3 and 1.5 kg CO2 eq. C Mg (dry matter (DM))-1), respectively. Plastic mulch film reduced establishment time, improving crop economics. The breakeven yield was calculated to be 6 Mg DM ha-1 y-1, which is about half average UK yield for Mxg; with newer seeded hybrids reaching 16 Mg DM ha-1 in second year UK trials. These combined improvements will significantly increase crop profitability. The trade-offs between costs of production for the preparation of different feedstock formats show that bales are the best option for direct firing with the lowest transport costs (£0.04 Mg -1 km-1) and easy on-farm storage. However if pelleted fuel is required then chip harvesting is more economic. We show how current seed based propagation methods can increase the rate at which Miscanthus can be scaled up; ~x100 those of current rhizome propagation. These rapid ramp rates for biomass production are required to deliver a scalable and economic Miscanthus biomass fuel whose GHG emissions are ~1/20th those of natural gas per unit of heat.

AB - Growth in planted areas of Miscanthus for biomass in Europe has stagnated since 2010 due to technical challenges, economic barriers and environmental concerns. These limitations need to be overcome before biomass production from Miscanthus can expand to several million hectares. In this paper we consider the economic and environmental effects of introducing seed based hybrids as an alternative to clonal M. x giganteus (Mxg). The impact of seed based propagation and novel agronomy was compared with current Mxg cultivation and used in ten commercially relevant, field scale experiments planted between 2012 and 2014 in the UK, Germany and Ukraine. Economic and greenhouse gas (GHG) emissions costs were quantified for the following production chain: propagation, establishment, harvest, transportation, storage and fuel preparation (excluding soil carbon changes). The production and utilisation efficiency of seed and rhizome propagation were compared. Results show that new hybrid seed propagation significantly reduces establishment cost to below £900 ha-1. Calculated GHG emission costs for the seeds established via plugs, though relatively small, was higher than rhizomes because fossil fuels were assumed to heat glasshouses for raising seedling plugs (5.3 and 1.5 kg CO2 eq. C Mg (dry matter (DM))-1), respectively. Plastic mulch film reduced establishment time, improving crop economics. The breakeven yield was calculated to be 6 Mg DM ha-1 y-1, which is about half average UK yield for Mxg; with newer seeded hybrids reaching 16 Mg DM ha-1 in second year UK trials. These combined improvements will significantly increase crop profitability. The trade-offs between costs of production for the preparation of different feedstock formats show that bales are the best option for direct firing with the lowest transport costs (£0.04 Mg -1 km-1) and easy on-farm storage. However if pelleted fuel is required then chip harvesting is more economic. We show how current seed based propagation methods can increase the rate at which Miscanthus can be scaled up; ~x100 those of current rhizome propagation. These rapid ramp rates for biomass production are required to deliver a scalable and economic Miscanthus biomass fuel whose GHG emissions are ~1/20th those of natural gas per unit of heat.

KW - Miscanthus

KW - commercial scale

KW - energy use

KW - greenhouse gas costs

KW - economic costs

KW - agronomy

KW - commercial scale trial

KW - seed based propagation

KW - harvesting techniques

KW - pelleting

KW - optimization of transport

KW - biomass

KW - bioeconomy

UR - http://hdl.handle.net/2160/45368

U2 - 10.3389/fpls.2017.01058

DO - 10.3389/fpls.2017.01058

M3 - Article

C2 - 28713395

VL - 8

JO - Frontiers in Plant Science

JF - Frontiers in Plant Science

SN - 1664-462X

M1 - 1058

ER -

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