Genes are expressed identically in leaf cells and root cells. True False

In recent years, a number of genes have been identified that contribute to the process of leaf morphogenesis. Here, I review ways to control leaf shape in a model plant, Arabidopsis thaliana, focusing on genes that play specific roles in leaf development. Lateral, double-leaf extension of the leaves is highly dependent on determining the dorsoventrally of primordia, a distinctive feature of the leaves. Having a fixed end is also a leaf element and is controlled by many factors. Lateral enlargement is regulated not only by normal cycling controllers but also by the control of multiple levels of meristematic activity, e.g., direct control of cell proliferation on the leaf length, leaf margins, and parenchymatous cells. In conjunction with separate control of leaf cell expansion, these unwanted and specialized control systems for cell rotation in the leaf lamina may detect the smooth, flat formation of leaves. The compact, flat shape of the leaves also depends on a good combination of cell proliferation and cell proliferation. Interestingly, although a decrease in the number of cells in leaf primordia may cause an increase in cell volume, an increase in cell number does not cause a decrease in cell volume. This condition is called compensation and suggests the presence of other systems of integration between cycling and cell growth in leaf primordia by cell interactions. The natural adjustment of leaf expansion in light conditions and gravity is also summarized.Like a living cell of many cells, rice thrives and relies on a variety of gene expressions among cells for various functions. However, the transcriptome features of cell-based modification are yet to be fully recognized, let alone cell-specific written responses to environmental regeneration. In this study, we used a single-cell RNA sequence in both the stem and root of rice plants that grow in a solution of the Kimura B gene or are exposed to various abiotic pressures and exhibit 237,431 cell transcriptomes. We identify 15 and 9 cell types in the leaf and root, respectively, and note that common transcriptome features are usually distributed between the leaves and roots in the same tissue layer, except for the endodermis or epidermis. The causes of Abiotic stress alter genetic makeup especially in a specific cell type, but in a given cell type, different pressures often cause transcriptional control of almost the same set of genes. In addition, we find changes in cell numerical values in response to abiotic pressure and investigate the basic molecular mechanisms by regenerating a single cell of developmental pathways. Overall, our study represents a data-based atlas transaction come transcriptome of a single cell seedling plant and a model of exploiting such resources to further the findings of plant biology.The answer is False that Genes are expressed identically in leaf cells and root cells because the leaf cells contain chloroplasts and the root cells do not.