Pre- and post-coppice production and biomass chemistry of eastern cottonwood and hybrid poplars in the southeastern US

Sustainably grown feedstocks for bioenergy and bioproducts are important tools to fight climate change, provide ecosystem services, and sequester carbon. Populus species including hybrid poplars have been utilized around the world, and in the southeastern US native eastern cottonwood ( P. deltoides ) is often favored due to its resistance to stem cankers. However, P. deltoides has historically been grown in single stem production and its relative performance in short rotation coppice production, prevalent in Europe, is not well documented. Therefore, this study's goals were to evaluate eastern cottonwood (D × D) and hybrid poplar ( P. deltoides × P. maximowiczii (D × M) and P. deltoides × P. trichocarpa (D × T) taxa) productivity under a two-year establishment and two-year coppice cycle, analyze biomass chemistry properties, identify drivers of productivity, and select clones suited for marginal vs. optimal sites. We found that D × M and D × D grew best in both establishment and coppice rotation with production increasing after coppice. Taxa and clones exhibited few differences in select biomass chemistry properties despite differences in growth rate and stem size. Across years and sites, production was correlated with the soil's carbon to nitrogen ratio, percentage of sand, and shrink-swell potential of the soil. A D × M clone ‘9709’ tended to perform better than other tested clones on marginal sites and had the highest survival rate after four years. Overall, this research suggests that Populus species can be grown in coppice rotation in the southeastern US with the potential for hybrid poplars to be successful on certain sites in the region although longer term studies are necessary to confirm these results. • D × M hybrids grew as well as native P. deltoides potentially resisting stem canker. • All clones grew better in the coppice cycle compared with the establishment cycle. • Biomass chemistry traits were similar across clones and taxa. • Production up to 20 Mg/ha/yr was measured in the best sites. • Productivity was related to soil C:N, sand concentration, and shrink-swell potential.

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Publication Details

Journal
Biomass and Bioenergy
Published
2026-04-25
DOI
https://doi.org/10.1016/j.biombioe.2026.109470
Primary Topic
Bioenergy crop production and management
Type
article
Field-Weighted Citation Impact
0.00

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article

Pre- and post-coppice production and biomass chemistry of eastern cottonwood and hybrid poplars in the southeastern US

Andrea P. Drager, Austin Himes, Nicole Labbé, Waqar Shafqat et al.
Biomass and Bioenergy
Bioenergy crop production and management
article

Pre- and post-coppice production and biomass chemistry of eastern cottonwood and hybrid poplars in the southeastern US

Andrea P. Drager, Austin Himes, Nicole Labbé, Waqar Shafqat, Keonhee Kim, Courtney Siegert, Heidi Renninger, Choo Hamilton
article en

Abstract

Sustainably grown feedstocks for bioenergy and bioproducts are important tools to fight climate change, provide ecosystem services, and sequester carbon. Populus species including hybrid poplars have been utilized around the world, and in the southeastern US native eastern cottonwood ( P. deltoides ) is often favored due to its resistance to stem cankers. However, P. deltoides has historically been grown in single stem production and its relative performance in short rotation coppice production, prevalent in Europe, is not well documented. Therefore, this study's goals were to evaluate eastern cottonwood (D × D) and hybrid poplar ( P. deltoides × P. maximowiczii (D × M) and P. deltoides × P. trichocarpa (D × T) taxa) productivity under a two-year establishment and two-year coppice cycle, analyze biomass chemistry properties, identify drivers of productivity, and select clones suited for marginal vs. optimal sites. We found that D × M and D × D grew best in both establishment and coppice rotation with production increasing after coppice. Taxa and clones exhibited few differences in select biomass chemistry properties despite differences in growth rate and stem size. Across years and sites, production was correlated with the soil's carbon to nitrogen ratio, percentage of sand, and shrink-swell potential of the soil. A D × M clone ‘9709’ tended to perform better than other tested clones on marginal sites and had the highest survival rate after four years. Overall, this research suggests that Populus species can be grown in coppice rotation in the southeastern US with the potential for hybrid poplars to be successful on certain sites in the region although longer term studies are necessary to confirm these results. • D × M hybrids grew as well as native P. deltoides potentially resisting stem canker. • All clones grew better in the coppice cycle compared with the establishment cycle. • Biomass chemistry traits were similar across clones and taxa. • Production up to 20 Mg/ha/yr was measured in the best sites. • Productivity was related to soil C:N, sand concentration, and shrink-swell potential.

Biomass and BioenergyVol. 214
Carbon180 (US), Washington State University (US), Mississippi State University (US)
National Institute of Food and Agriculture, Office of Energy Efficiency and Renewable Energy
Openalex Percentile: Top 8%
Bioenergy crop production and management
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