Project description:We conducted a comparative leaf transcriptomic analysis of peanut plants grown under ambient and elevated atmospheric CO2 in semiarid conditions. We developed high-resolution spatiotemporal gene expression profiles for peanut leaf from flowering to physiological maturity. Our results showed that we identified genes and transcription factors associated with carbon metabolism pathways, specifically photosynthesis-related pathways, including photorespiration and light reaction. The major carbohydrate metabolism-related pathways were also significantly influenced by elevated CO2 and drought. Our results highlight insights into the mechanistic basis of photosynthesis acclimation to elevated CO2 in peanuts across different developmental stages.
Project description:Transcriptional profiling of zebrafish embryos comparing wild type untreated embryos with embryos injected with morpholino of zf-grna. This assay is used for the determination of expression profiling at 22 hpf under GRN-A deficiency.
2013-03-28 | GSE28318 | GEO
Project description:Transcriptome analysis of K + deficiency susceptible (PUSA362) and tolerant (PUSA372) cultivars under K + sufficient and deficient conditions.
| PRJNA883591 | ENA
Project description:Microbes enhance the resistance of peanut under exogenous calcium
Project description:Transcriptional profiling of zebrafish embryo comparing wild type untreated embryos with embryos injected with morpholino of zf-bad. This assay is used for determination of expression profiling at 24 hpf and 48 hpf under Bad deficiency.
2014-06-01 | GSE47971 | GEO
Project description:Transcriptome of kiwifruit roots under iron deficiency conditions
Project description:Transcriptional profiling of zebrafish embryo comparing wild type untreated embryos with embryos injected with morpholino of zf-grna. This assay is used for determination of expression profiling of trunk muscle at 16, 24, 48, 72 hpf under GRN-A deficiency.
Project description:To optimize access to nitrogen under limiting conditions, root systems must continuously sense and respond to local or temporal fluctuations in nitrogen availability. In Arabidopsis thaliana and several other species, external N levels that induce only mild deficiency stimulate the emergence of lateral roots and especially the elongation of primary and lateral roots. However, the identity of the genes involved in this coordination remains still largely elusive. In order to identify novel genes and mechanisms underlying nitrogen-dependent root morphological changes, we investigated time-dependent changes in the root transcriptome of Arabidopsis thaliana plants grown under sufficient nitrogen or under conditions that induced mild nitrogen deficiency.