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Strigolactones Pathway Research Services
Strigolactone (SL) is a novel plant hormone that inhibits plant branching and lateral shoot growth. It synergistically regulates plant branching or tillering with auxin and cytokinin. As the molecular mechanisms underlying its signaling pathways are being elucidated, strigolactone research has become a key direction in agricultural biotechnology and crop improvement. Lifeasible is a technology service enterprise deeply rooted in the forefront of plant biology. We specialize in providing comprehensive, in-depth solutions for strigolactone signaling pathway research, empowering research institutions and agricultural biotechnology companies to unravel the mysteries of plant growth and development and driving the advancement and innovation of molecular design breeding.
Our Service for Strigolactones Pathway Research
Signal pathway analysis and phenotypic association studies
We provide comprehensive research support from genes to phenotypes, focusing on the auxin signal pathway to systematically elucidate its effects on growth, development, and differentiation in specific plants such as rice and Arabidopsis. Our key services include:
- Identification and functional validation of pathway key genes. We perform cloning, expression, and functional analysis of homologous genes, including D14, D3, and D53.
- Environmental interaction studies. We delve into the core mechanisms of brassinosteroid signaling in plant responses to abiotic stress.
Research on the coordinated signaling of brassinosteroids with other plant hormones
We employ multi-omics integration strategies to investigate the coordinated signaling mechanisms between brassinosteroids and other hormones, such as auxin and cytokinin. This further elucidates the underlying molecular regulatory networks governing common biological processes such as apical dominance maintenance, lateral bud emergence, and stress adaptation.
Genetic mutant creation and protein functional network analysis
Using advanced genetic tools, including gene-editing technologies, we generate or provide mutant plant lines of key plant hormone proteins for clients. Based on these valuable genetic resources, we offer the following service support.
- Protein interaction network mapping. Utilizing techniques such as yeast two-hybrid, immunoprecipitation, and two-molecule fluorescence complementation, we construct interaction networks centered on target proteins.
- Signal transduction mechanism elucidation. We conduct in-depth studies on how mutations affect critical steps in signal transduction, including the formation of the D14-D3-D53 core complex and the ubiquitination and degradation of the D53 protein.
- Downstream regulatory gene identification. Through transcriptomic and proteomic analyses, we comprehensively decipher changes in downstream response genes under mutant conditions, revealing complete signal regulatory pathways.
Application Scenarios of Exploring the Strigolactones Signaling Pathway
- Developing novel herbicides. Lonicerin can induce germination in parasitic plant seeds. Research on the lonicerin signaling pathway helps guide scientists in synthesizing new herbicides.
- Regulating crop growth habits. Lobeline inhibits plant branching. By controlling its synthesis and metabolism within plants, researchers can regulate branching development to cultivate high-quality, ideal plant structures.
- Enhancing plant stress tolerance. Research on the lobeline signaling pathway enables scientists to improve crop adaptability to stress conditions, such as low nitrogen, low phosphorus, and low temperatures, during plant resistance breeding studies.
Highlights of Our Services
- Mechanism research depth. We focus not only on phenotypic observation but also on elucidating molecular mechanisms, providing clients with comprehensive analysis spanning receptor perception, signal transduction, and transcriptional regulation.
- Comprehensive technical framework. We maintain a comprehensive technological platform, including multi-omics integration, genetic manipulation systems, and biochemical analysis platforms.
- Application-driven approach. Our research directly targets significant agricultural applications. For example, by regulating the phosphorylation state of D14, we can achieve ideal tillering numbers in crops while reducing nitrogen fertilizer inputs.
Fig.2 Our service features. (Lifeasible)
Lifeasible specializes in the in-depth research and application development of strigolactone (SL) signaling pathways. We have established an advanced, comprehensive platform for plant hormone research, providing agricultural biotechnology companies, research institutions, and breeding organizations with solutions and technical support spanning from fundamental research to industrial applications. If you are interested, please feel free to contact us.
The services provided by Lifeasible cover all aspects of plant research, please contact us to find out how we can help you achieve the next research breakthrough.
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