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In plants, different mechanisms are activated by gene expression in response to abiotic stresses. The great challenge is to study the physiological patterns and the genes involved in each pathway to evaluate the mechanisms used by plant the overcame de stressfully conditions.  To mitigate the negative impact of adverse environmental conditions, the particle films technique has become a potential crop management tool for plants to overcome the adverse environmental conditions. The mean goal of this work is to identify genes expressed and involved in different ecophysiological pathways responding to abiotic stresses. GeneMANIA and Cytoscape software were fundamental in the establishment of gene networks. In addition, a graphical representation encompassed other closely linked genes with similar functions. From the perspective of particle film technology, the genes involved in each ecophysiological parameter may, in the future, elucidate new plant response mechanisms, and therefore, a more adaptive molecular response to adverse environmental conditions.

In plants, different mechanisms are activated by gene expression in response to abiotic stresses. The great challenge is to study the physiological patterns and the genes involved in each pathway to evaluate the mechanisms used by plant the overcame de stressfully conditions.  To mitigate the negative impact of adverse environmental conditions, the particle films technique has become a potential crop management tool for plants to overcome the adverse environmental conditions. The mean goal of this work is to identify genes expressed and involved in different ecophysiological pathways responding to abiotic stresses. GeneMANIA and Cytoscape software were fundamental in the establishment of gene networks. In addition, a graphical representation encompassed other closely linked genes with similar functions. From the perspective of particle film technology, the genes involved in each ecophysiological parameter may, in the future, elucidate new plant response mechanisms, and therefore, a more adaptive molecular response to adverse environmental conditions.

In plants, different mechanisms are activated by gene expression in response to abiotic stresses. The great challenge is to study the physiological patterns and the genes involved in each pathway to evaluate the mechanisms used by plant the overcame de stressfully conditions.  To mitigate the negative impact of adverse environmental conditions, the particle films technique has become a potential crop management tool for plants to overcome the adverse environmental conditions. The mean goal of this work is to identify genes expressed and involved in different ecophysiological pathways responding to abiotic stresses. GeneMANIA and Cytoscape software were fundamental in the establishment of gene networks. In addition, a graphical representation encompassed other closely linked genes with similar functions. From the perspective of particle film technology, the genes involved in each ecophysiological parameter may, in the future, elucidate new plant response mechanisms, and therefore, a more adaptive molecular response to adverse environmental conditions.

In plants, different mechanisms are activated by gene expression in response to abiotic stresses. The great challenge is to study the physiological patterns and the genes involved in each pathway to evaluate the mechanisms used by plant the overcame de stressfully conditions.  To mitigate the negative impact of adverse environmental conditions, the particle films technique has become a potential crop management tool for plants to overcome the adverse environmental conditions. The mean goal of this work is to identify genes expressed and involved in different ecophysiological pathways responding to abiotic stresses. GeneMANIA and Cytoscape software were fundamental in the establishment of gene networks. In addition, a graphical representation encompassed other closely linked genes with similar functions. From the perspective of particle film technology, the genes involved in each ecophysiological parameter may, in the future, elucidate new plant response mechanisms, and therefore, a more adaptive molecular response to adverse environmental conditions.

In plants, different mechanisms are activated by gene expression in response to abiotic stresses. The great challenge is to study the physiological patterns and the genes involved in each pathway to evaluate the mechanisms used by plant the overcame de stressfully conditions.  To mitigate the negative impact of adverse environmental conditions, the particle films technique has become a potential crop management tool for plants to overcome the adverse environmental conditions. The mean goal of this work is to identify genes expressed and involved in different ecophysiological pathways responding to abiotic stresses. GeneMANIA and Cytoscape software were fundamental in the establishment of gene networks. In addition, a graphical representation encompassed other closely linked genes with similar functions. From the perspective of particle film technology, the genes involved in each ecophysiological parameter may, in the future, elucidate new plant response mechanisms, and therefore, a more adaptive molecular response to adverse environmental conditions.

Com o objetivo de verificar a influência de parâmetros fisiológicos das plantas de milho doce (H43IN) e milho comum (UENF506-8), nos períodos de desenvolvimento, nos teores de carboidratos e na produtividade desta espécie, foram conduzidos experimentos sob condições de campo, no Colégio Agrícola Antonio Sarlo, em Campos dos Goytacazes-RJ. Os experimentos foram instalados nos meses de setembro a janeiro de 2004. Os parametros fisiológicos foram estudados em quatro períodos: período III de crescimento vegetativo, V e VII reprodutivo e IX senescência da planta. Os parâmetros fisiológicos (taxa fotossintética líquida, déficit de pressão de vapor entre a folha e o ar e condutância estomática), observados, nas diferentes fases fenológicas, demonstraram haver diferenças significativas entre os dois genótipos. Os teores de açúcares e amido determinados nos estádios V e VII também demonstram diferenças, como esperado e a produtividade demonstrou superioridade do milho comum em relação ao milho doce.

Com o objetivo de verificar a influência de parâmetros fisiológicos das plantas de milho doce (H43IN) e milho comum (UENF506-8), nos períodos de desenvolvimento, nos teores de carboidratos e na produtividade desta espécie, foram conduzidos experimentos sob condições de campo, no Colégio Agrícola Antonio Sarlo, em Campos dos Goytacazes-RJ. Os experimentos foram instalados nos meses de setembro a janeiro de 2004. Os parametros fisiológicos foram estudados em quatro períodos: período III de crescimento vegetativo, V e VII reprodutivo e IX senescência da planta. Os parâmetros fisiológicos (taxa fotossintética líquida, déficit de pressão de vapor entre a folha e o ar e condutância estomática), observados, nas diferentes fases fenológicas, demonstraram haver diferenças significativas entre os dois genótipos. Os teores de açúcares e amido determinados nos estádios V e VII também demonstram diferenças, como esperado e a produtividade demonstrou superioridade do milho comum em relação ao milho doce.