Potencial de produção de cana-energia em áreas agrícolas marginais no Brasil

Detalhes bibliográficos
Autor(a) principal: Violante, Mauro Henrique Salgueiro Rodrigues
Data de Publicação: 2012
Tipo de documento: Dissertação
Idioma: por
Título da fonte: Repositório Institucional do FGV (FGV Repositório Digital)
Texto Completo: http://hdl.handle.net/10438/10222
Resumo: The discovery and use of oil caused significant changes in society over time, being one of the most important factors and environmental and cultural transformation in the world over the last century. Its wide range of possibilities for use ended up creating a production system based on a single energy agent, especially in countries which do not have water resources or other renewable sources. However, in the last decades of the last century, countless discussions about the need to change the composition of the global energy matrix have arisen. As a result of concerns about the shortage of natural resource, several researchers directed their studies for the search for alternatives that could sustainably provide a substitute to oil. One would be the use of biomass in order to take advantage of the ability of plants to transform solar energy into carbohydrates. Brazil, in addition to owning one of the most diversified clean energy matrices in the world, has large expanse of arable land which puts it in a prominent position on the production potential of agroenergetic cultures. Considering the characteristics of sugar cane and its adaptation to growing areas of Brazil and driven by the demands of modern biomass production, to be applied in more complex transformation processes and allow obtaining other products besides sugar, alcohol and energy, this paper studied plants of improved sugar cane with the sole purpose of producing modern biomass, the so-called 'energy cane' (sugar cane energy). This is a plant that, contrary to traditional sugarcane, improved to produce sucrose, is directed to produce fiber, and that, in addition, by having greater participation of the ancestral species of greatest rusticity, are able to withstand stressful environmental conditions. The results obtained have shown that the hybrids have large cane energy potential of biomass production and dry mass per area, at highly competitive costs considering the comparative analysis of cost of production of dry mass per area. As for production, it was possible to observe that in addition to being more productive in first cut, on the results of ratoon crop (second cut), the better sugarcane hybrid came to produce energy, one and a half times more drought mass than the traditional sugar cane, and presented the biggest productivity that other energy crops such as the eucalyptus and the elephant grass, being that, considering the average yields observed from the third cut with these productivity levels, energy cane becomes the raw material with lower production cost of dry mass per area, showing its high potential as raw material for the production of bioenergy. In the agroecological zoning for energy cane, it has been possible to identify 32.3 million hectares of marginal agricultural production areas suitable for the cultivation of this material, which according to the results of the agricultural zoning and the characteristics of the regions in studies, shows that from this total, we can consider that the material under study in this paper, could be grown at least 2.0 to 8.0 million hectares with sugar cane energy of this first generation of hybrids.
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spelling Violante, Mauro Henrique Salgueiro RodriguesEscolas::EESPBressiane, José AntonioMatsuoka, SizuoDourado Neto, Durval2012-11-08T16:22:15Z2012-11-08T16:22:15Z2012-06-29VIOLANTE, Mauro Henrique Salgueiro Rodrigues. Potencial de produção de cana-energia em áreas agrícolas marginais no Brasil. Dissertação (Mestrado Profissional em Agronegócios) - Escola de Economia de São Paulo, Fundação Getúlio Vargas - FGV, São Paulo, 2012.http://hdl.handle.net/10438/10222The discovery and use of oil caused significant changes in society over time, being one of the most important factors and environmental and cultural transformation in the world over the last century. Its wide range of possibilities for use ended up creating a production system based on a single energy agent, especially in countries which do not have water resources or other renewable sources. However, in the last decades of the last century, countless discussions about the need to change the composition of the global energy matrix have arisen. As a result of concerns about the shortage of natural resource, several researchers directed their studies for the search for alternatives that could sustainably provide a substitute to oil. One would be the use of biomass in order to take advantage of the ability of plants to transform solar energy into carbohydrates. Brazil, in addition to owning one of the most diversified clean energy matrices in the world, has large expanse of arable land which puts it in a prominent position on the production potential of agroenergetic cultures. Considering the characteristics of sugar cane and its adaptation to growing areas of Brazil and driven by the demands of modern biomass production, to be applied in more complex transformation processes and allow obtaining other products besides sugar, alcohol and energy, this paper studied plants of improved sugar cane with the sole purpose of producing modern biomass, the so-called 'energy cane' (sugar cane energy). This is a plant that, contrary to traditional sugarcane, improved to produce sucrose, is directed to produce fiber, and that, in addition, by having greater participation of the ancestral species of greatest rusticity, are able to withstand stressful environmental conditions. The results obtained have shown that the hybrids have large cane energy potential of biomass production and dry mass per area, at highly competitive costs considering the comparative analysis of cost of production of dry mass per area. As for production, it was possible to observe that in addition to being more productive in first cut, on the results of ratoon crop (second cut), the better sugarcane hybrid came to produce energy, one and a half times more drought mass than the traditional sugar cane, and presented the biggest productivity that other energy crops such as the eucalyptus and the elephant grass, being that, considering the average yields observed from the third cut with these productivity levels, energy cane becomes the raw material with lower production cost of dry mass per area, showing its high potential as raw material for the production of bioenergy. In the agroecological zoning for energy cane, it has been possible to identify 32.3 million hectares of marginal agricultural production areas suitable for the cultivation of this material, which according to the results of the agricultural zoning and the characteristics of the regions in studies, shows that from this total, we can consider that the material under study in this paper, could be grown at least 2.0 to 8.0 million hectares with sugar cane energy of this first generation of hybrids.A descoberta e utilização do petróleo provocaram significativas mudanças na sociedade ao longo do tempo, sendo ele um dos mais importantes fatores de transformação socioambiental e cultural no mundo ao longo do ultimo século. Sua grande gama de possibilidades de utilização acabou criando um sistema de produção baseado em um único agente energético, principalmente nos países que não possuem recursos hídricos nem outras fontes renováveis. Porém, nas ultimas décadas do século passado, começaram a surgir inúmeras discussões sobre a necessidade de se alterar a composição da matriz energética global. Como resultados das preocupações quanto à escassez daquele recurso natural, vários pesquisadores direcionaram seus estudos para a busca de alternativas que pudessem de forma sustentável se prestar como substituto ao petróleo. Uma delas seria o uso de biomassa, de forma a aproveitar a capacidade das plantas em transformar a energia solar em carbohidratos. O Brasil, além de possuir uma das matrizes energéticas mais diversificadas e limpas do mundo, possui grande extensão de terras agricultáveis o que o coloca em lugar de destaque quanto ao potencial de produção de culturas agroenergéticas. Considerando as características da cana-de-açúcar e a sua adaptação a áreas de cultivo do Brasil e impulsionados pela demanda de produção de biomassa moderna, a ser aplicada em processos de transformação mais complexos e que possibilitem a obtenção de outros produtos além de açúcar, álcool e energia, estudou-se neste trabalho plantas de cana-de-açúcar melhoradas com a finalidade exclusiva de produzir biomassa moderna, a chamada 'cana- energia'. Esta é uma planta que, contrariamente à tradicional cana-de-açúcar, melhorada para produzir sacarose, é direcionada para produzir fibra, e que, além disso, por possuir maior participação de espécies ancestrais de maior rusticidade, estão aptas a suportar condições ambientais mais estressantes. Os resultados obtidos demonstraram que os híbridos de cana-energia apresentam grande potencial de produção de biomassa e massa seca por área, a custos altamente competitivos considerando as análises comparativas de custo de produção de massa seca por área. Quanto a produção foi possível observar que além de ser mais produtiva em primeiro corte, nos resultados de colheita de soqueira (segundo corte), o melhor híbrido de cana- energia chegou a produzir uma vez e meia mais massa seca que a cana-de-açúcar tradicional, e apresentou maiores produtividades que outras culturas energéticas tais como o eucalipto e o capim-elefante, sendo que, considerando as produtividades médias observadas, a partir do terceiro corte com estes níveis de produtividade, a cana-energia passa a ser a matéria prima de mais baixo custo de produção de massa seca por área, denotando o seu alto potencial como matéria prima para a produção de bioenergia. No Zoneamento agroecológico realizado para a cana energia foi possível identificar 32,3 milhões de hectares de áreas de produção agrícola marginais aptas ao cultivo deste material, sendo que de acordo com os resultados do zoneamento agrícola e as características das regiões em estudos, identifica-se que deste total, pode-se considerar que os materiais que se destacaram em produtividade neste estudo, apresentam boas condições de ocupar uma área de 2,0 a 8,0 milhões de hectares.porAgroenergyModern biomassAgroenergiaBiomassa modernaEconomiaCana-de-açúcar - BrasilBiomassaBiocombustíveis - BrasilEnergia - Fontes alternativas - BrasilPotencial de produção de cana-energia em áreas agrícolas marginais no Brasilinfo:eu-repo/semantics/publishedVersioninfo:eu-repo/semantics/masterThesisreponame:Repositório Institucional do FGV (FGV Repositório Digital)instname:Fundação Getulio Vargas (FGV)instacron:FGVinfo:eu-repo/semantics/openAccessORIGINALDissertacao_Mauro Violante.pdfDissertacao_Mauro 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dc.title.por.fl_str_mv Potencial de produção de cana-energia em áreas agrícolas marginais no Brasil
title Potencial de produção de cana-energia em áreas agrícolas marginais no Brasil
spellingShingle Potencial de produção de cana-energia em áreas agrícolas marginais no Brasil
Violante, Mauro Henrique Salgueiro Rodrigues
Agroenergy
Modern biomass
Agroenergia
Biomassa moderna
Economia
Cana-de-açúcar - Brasil
Biomassa
Biocombustíveis - Brasil
Energia - Fontes alternativas - Brasil
title_short Potencial de produção de cana-energia em áreas agrícolas marginais no Brasil
title_full Potencial de produção de cana-energia em áreas agrícolas marginais no Brasil
title_fullStr Potencial de produção de cana-energia em áreas agrícolas marginais no Brasil
title_full_unstemmed Potencial de produção de cana-energia em áreas agrícolas marginais no Brasil
title_sort Potencial de produção de cana-energia em áreas agrícolas marginais no Brasil
author Violante, Mauro Henrique Salgueiro Rodrigues
author_facet Violante, Mauro Henrique Salgueiro Rodrigues
author_role author
dc.contributor.unidadefgv.por.fl_str_mv Escolas::EESP
dc.contributor.member.none.fl_str_mv Bressiane, José Antonio
Matsuoka, Sizuo
dc.contributor.author.fl_str_mv Violante, Mauro Henrique Salgueiro Rodrigues
dc.contributor.advisor1.fl_str_mv Dourado Neto, Durval
contributor_str_mv Dourado Neto, Durval
dc.subject.por.fl_str_mv Agroenergy
Modern biomass
Agroenergia
Biomassa moderna
topic Agroenergy
Modern biomass
Agroenergia
Biomassa moderna
Economia
Cana-de-açúcar - Brasil
Biomassa
Biocombustíveis - Brasil
Energia - Fontes alternativas - Brasil
dc.subject.area.por.fl_str_mv Economia
dc.subject.bibliodata.por.fl_str_mv Cana-de-açúcar - Brasil
Biomassa
Biocombustíveis - Brasil
Energia - Fontes alternativas - Brasil
description The discovery and use of oil caused significant changes in society over time, being one of the most important factors and environmental and cultural transformation in the world over the last century. Its wide range of possibilities for use ended up creating a production system based on a single energy agent, especially in countries which do not have water resources or other renewable sources. However, in the last decades of the last century, countless discussions about the need to change the composition of the global energy matrix have arisen. As a result of concerns about the shortage of natural resource, several researchers directed their studies for the search for alternatives that could sustainably provide a substitute to oil. One would be the use of biomass in order to take advantage of the ability of plants to transform solar energy into carbohydrates. Brazil, in addition to owning one of the most diversified clean energy matrices in the world, has large expanse of arable land which puts it in a prominent position on the production potential of agroenergetic cultures. Considering the characteristics of sugar cane and its adaptation to growing areas of Brazil and driven by the demands of modern biomass production, to be applied in more complex transformation processes and allow obtaining other products besides sugar, alcohol and energy, this paper studied plants of improved sugar cane with the sole purpose of producing modern biomass, the so-called 'energy cane' (sugar cane energy). This is a plant that, contrary to traditional sugarcane, improved to produce sucrose, is directed to produce fiber, and that, in addition, by having greater participation of the ancestral species of greatest rusticity, are able to withstand stressful environmental conditions. The results obtained have shown that the hybrids have large cane energy potential of biomass production and dry mass per area, at highly competitive costs considering the comparative analysis of cost of production of dry mass per area. As for production, it was possible to observe that in addition to being more productive in first cut, on the results of ratoon crop (second cut), the better sugarcane hybrid came to produce energy, one and a half times more drought mass than the traditional sugar cane, and presented the biggest productivity that other energy crops such as the eucalyptus and the elephant grass, being that, considering the average yields observed from the third cut with these productivity levels, energy cane becomes the raw material with lower production cost of dry mass per area, showing its high potential as raw material for the production of bioenergy. In the agroecological zoning for energy cane, it has been possible to identify 32.3 million hectares of marginal agricultural production areas suitable for the cultivation of this material, which according to the results of the agricultural zoning and the characteristics of the regions in studies, shows that from this total, we can consider that the material under study in this paper, could be grown at least 2.0 to 8.0 million hectares with sugar cane energy of this first generation of hybrids.
publishDate 2012
dc.date.accessioned.fl_str_mv 2012-11-08T16:22:15Z
dc.date.available.fl_str_mv 2012-11-08T16:22:15Z
dc.date.issued.fl_str_mv 2012-06-29
dc.type.status.fl_str_mv info:eu-repo/semantics/publishedVersion
dc.type.driver.fl_str_mv info:eu-repo/semantics/masterThesis
format masterThesis
status_str publishedVersion
dc.identifier.citation.fl_str_mv VIOLANTE, Mauro Henrique Salgueiro Rodrigues. Potencial de produção de cana-energia em áreas agrícolas marginais no Brasil. Dissertação (Mestrado Profissional em Agronegócios) - Escola de Economia de São Paulo, Fundação Getúlio Vargas - FGV, São Paulo, 2012.
dc.identifier.uri.fl_str_mv http://hdl.handle.net/10438/10222
identifier_str_mv VIOLANTE, Mauro Henrique Salgueiro Rodrigues. Potencial de produção de cana-energia em áreas agrícolas marginais no Brasil. Dissertação (Mestrado Profissional em Agronegócios) - Escola de Economia de São Paulo, Fundação Getúlio Vargas - FGV, São Paulo, 2012.
url http://hdl.handle.net/10438/10222
dc.language.iso.fl_str_mv por
language por
dc.rights.driver.fl_str_mv info:eu-repo/semantics/openAccess
eu_rights_str_mv openAccess
dc.source.none.fl_str_mv reponame:Repositório Institucional do FGV (FGV Repositório Digital)
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instacron:FGV
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reponame_str Repositório Institucional do FGV (FGV Repositório Digital)
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