PGT_2024v15n2

Plant Gene and Trait 2024, Vol.15, No.2, 97-107 http://genbreedpublisher.com/index.php/pgt 103 identify key genes and pathways involved in Eucalyptus defense against biotic stressors, providing insights into the genetic basis of disease resistance and informing the development of resistant genotypes (Figure 3) (Toit et al., 2020). These case studies demonstrate the practical benefits of integrating genomic data into forestry management, ultimately leading to more productive and resilient Eucalyptus plantations. Figure 3 Architecture of the eCALIBRATOR tool (Adopted from Toit et al., 2020) Image caption: (A) The flow of the HC Plot pipeline for the “PROVIDE OWN DATA” option is in dark green while the flow of the pipeline for the “BROWSE DATABASE” option is in light green. The pipeline is split into five different phases. PHASE 1: Investigator options specific to the data input method, PHASE 2: Clustering and data formatting, PHASE 3: Displaying results and PHASE 4: Download data. (B) The flow of the Venn Plot pipeline for the “PROVIDE OWN DATA” option is in dark blue while the flow of the pipeline for the “BROWSE DATABASE” option is in light blue. The pipeline is split into four different phases. PHASE 1: Investigator options specific to the data input method, PHASE 2: Calculating the intercepts required to generate the venn, PHASE 3: Displaying results and PHASE 4: Download data (Adopted from Toit et al., 2020) 8 Future Directions inEucalyptus Genetic Research 8.1 Emerging trends and innovations in plant genetics Recent advancements in plant genetics have significantly impacted the study of Eucalyptus, particularly in understanding the genetic mechanisms underlying asexual reproduction and adaptive traits (Xie et al., 2017). The comparative analysis of protein domain evolution in Eucalyptus grandis has revealed that tandem duplication of genes plays a crucial role in the expansion of protein domains, which are essential for reproductive specialization and interactions with biotic and abiotic factors (Kersting et al., 2015). Additionally, the overexpression of FLOWERING LOCUS T (FT) has been shown to induce early flowering in Eucalyptus, which can accelerate breeding programs and genetic studies (Klocko et al., 2016). These innovations highlight the potential for genetic modifications to enhance desirable traits in Eucalyptus.

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