Exploring the treasure of plant molecules with integrated biorefineries

Andres F. Torres, Xuan Xu, Constantinos V. Nikiforidis, Johannes H. Bitter, Luisa M. Trindade*

*Corresponding author for this work

Research output: Contribution to journalArticleAcademicpeer-review

1 Citation (Scopus)

Abstract

Despite significant progress toward the commercialization of biobased products, today’s biorefineries are far from achieving their intended goal of total biomass valorization and effective product diversification. The problem is conceptual. Modern biorefineries were built around well-optimized, cost-effective chemical synthesis routes, like those used in petroleum refineries for the synthesis of fuels, plastics, and solvents. However, these were designed for the conversion of fossil resources and are far from optimal for the processing of biomass, which has unique chemical characteristics. Accordingly, existing biomass commodities were never intended for modern biorefineries as they were bred to meet the needs of conventional agriculture. In this perspective paper, we propose a new path toward the design of efficient biorefineries, which capitalizes on a cross-disciplinary synergy between plant, physical, and catalysis science. In our view, the best opportunity to advance profitable and sustainable biorefineries requires the parallel development of novel feedstocks, conversion protocols and synthesis routes specifically tailored for total biomass valorization. Above all, we believe that plant biologists and process technologists can jointly explore the natural diversity of plants to synchronously develop both, biobased crops with designer chemistries and compatible conversion protocols that enable maximal biomass valorization with minimum input utilization. By building biorefineries from the bottom-up (i.e., starting with the crop), the envisioned partnership promises to develop cost-effective, biomass-dedicated routes which can be effectively scaled-up to deliver profitable and resource-use efficient biorefineries.

Original languageEnglish
Article number478
JournalFrontiers in Plant Science
Volume10
DOIs
Publication statusPublished - 16 Apr 2019

Fingerprint

biorefining
biomass
synthesis
biobased products
commercialization
crops
feedstocks
catalytic activity
products and commodities
petroleum
biologists
chemistry
fossils
plastics
agriculture
breeds

Keywords

  • Biobased economy
  • Biomass deconstruction
  • Biorefinery
  • Cross-disciplinary
  • Plant breeding
  • Plant compounds
  • Process technology

Cite this

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title = "Exploring the treasure of plant molecules with integrated biorefineries",
abstract = "Despite significant progress toward the commercialization of biobased products, today’s biorefineries are far from achieving their intended goal of total biomass valorization and effective product diversification. The problem is conceptual. Modern biorefineries were built around well-optimized, cost-effective chemical synthesis routes, like those used in petroleum refineries for the synthesis of fuels, plastics, and solvents. However, these were designed for the conversion of fossil resources and are far from optimal for the processing of biomass, which has unique chemical characteristics. Accordingly, existing biomass commodities were never intended for modern biorefineries as they were bred to meet the needs of conventional agriculture. In this perspective paper, we propose a new path toward the design of efficient biorefineries, which capitalizes on a cross-disciplinary synergy between plant, physical, and catalysis science. In our view, the best opportunity to advance profitable and sustainable biorefineries requires the parallel development of novel feedstocks, conversion protocols and synthesis routes specifically tailored for total biomass valorization. Above all, we believe that plant biologists and process technologists can jointly explore the natural diversity of plants to synchronously develop both, biobased crops with designer chemistries and compatible conversion protocols that enable maximal biomass valorization with minimum input utilization. By building biorefineries from the bottom-up (i.e., starting with the crop), the envisioned partnership promises to develop cost-effective, biomass-dedicated routes which can be effectively scaled-up to deliver profitable and resource-use efficient biorefineries.",
keywords = "Biobased economy, Biomass deconstruction, Biorefinery, Cross-disciplinary, Plant breeding, Plant compounds, Process technology",
author = "Torres, {Andres F.} and Xuan Xu and Nikiforidis, {Constantinos V.} and Bitter, {Johannes H.} and Trindade, {Luisa M.}",
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Exploring the treasure of plant molecules with integrated biorefineries. / Torres, Andres F.; Xu, Xuan; Nikiforidis, Constantinos V.; Bitter, Johannes H.; Trindade, Luisa M.

In: Frontiers in Plant Science, Vol. 10, 478, 16.04.2019.

Research output: Contribution to journalArticleAcademicpeer-review

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T1 - Exploring the treasure of plant molecules with integrated biorefineries

AU - Torres, Andres F.

AU - Xu, Xuan

AU - Nikiforidis, Constantinos V.

AU - Bitter, Johannes H.

AU - Trindade, Luisa M.

PY - 2019/4/16

Y1 - 2019/4/16

N2 - Despite significant progress toward the commercialization of biobased products, today’s biorefineries are far from achieving their intended goal of total biomass valorization and effective product diversification. The problem is conceptual. Modern biorefineries were built around well-optimized, cost-effective chemical synthesis routes, like those used in petroleum refineries for the synthesis of fuels, plastics, and solvents. However, these were designed for the conversion of fossil resources and are far from optimal for the processing of biomass, which has unique chemical characteristics. Accordingly, existing biomass commodities were never intended for modern biorefineries as they were bred to meet the needs of conventional agriculture. In this perspective paper, we propose a new path toward the design of efficient biorefineries, which capitalizes on a cross-disciplinary synergy between plant, physical, and catalysis science. In our view, the best opportunity to advance profitable and sustainable biorefineries requires the parallel development of novel feedstocks, conversion protocols and synthesis routes specifically tailored for total biomass valorization. Above all, we believe that plant biologists and process technologists can jointly explore the natural diversity of plants to synchronously develop both, biobased crops with designer chemistries and compatible conversion protocols that enable maximal biomass valorization with minimum input utilization. By building biorefineries from the bottom-up (i.e., starting with the crop), the envisioned partnership promises to develop cost-effective, biomass-dedicated routes which can be effectively scaled-up to deliver profitable and resource-use efficient biorefineries.

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KW - Biomass deconstruction

KW - Biorefinery

KW - Cross-disciplinary

KW - Plant breeding

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KW - Process technology

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JO - Frontiers in Plant Science

JF - Frontiers in Plant Science

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ER -