1、Understanding brassinosteroid

During their functioning, BRs engage in extensive and intricate interactions with other phytohormones, including auxin, cytokinins, gibberellins, abscisic acid, ethylene, jasmonates, salicylic acid, and strigolactones.

2、The brassinosteroid chemical toolbox

Moreover, a fluorescently labeled brassinosteroid enabled the visualization of the receptor–ligand pair in the cell. Given the insights obtained, small molecules will continue to provide new opportunities for probing brassinosteroid biosynthesis and for unraveling the dynamic and highly interconnected signaling.

3、Significance of brassinosteroids and their derivatives in the

Chloride ions have bleaching effect and gradually damage the chlorophyll pigments. A NaCl solution in aqueous medium is neutral and all such assumptions that it produces acidity and damages the crop are baseless.

Comprehensive Overview of the Brassinosteroid Biosynthesis Pathways

Brassinosteroids (BRs) as a class of steroid plant hormones participate in the regulation of numerous developmental processes, including root and shoot growth, vascular differentiation, fertility, flowering, and seed germination, as well as in responding to environmental stresses.

Synthesis and Biological Activity of New Brassinosteroid Analogs of

Herein, we report the synthesis of brassinosteroid 24-nor-5β-cholane type analogs with 23-benzoate function and 22,23-benzoate groups. The synthesis was accomplished with high reaction yields in a four-step synthesis route and using hyodeoxycholic acid as starting material.

SYNTHESIS AND PRACTICAL APPLICATIONS OF BRASSINOSTEROID ANALOGS

This chapter summarizes the synthesis of several brassinosteroid analogs with structural variations in different parts of the molecules, starting from available steroids such as diosgenin, hecogenin, solasodine, solanidine and bile acids.

Brassinosteroids: perspective of biosynthesis, crosstalk, and role in

BRs are elemental for the progression of various processes, such as cell expansion, division, maintenance of stem cell pool, development of vasculature, and floral transition. Signaling as well as cross-talk mechanisms are regulated by a cohort of BR-signaling proteins.

Synthesis and Biological Activity of New Brassinosteroid

All synthesized analogs were tested using the rice lamina inclination test to assess their growth-promoting activity and compare it with those obtained for brassinolide, which was used as a positive control.

Synthesis and Biological Activity of Brassinosteroid Analogues with a

Brassinosteroids are a class of plant hormones that regulate a broad range of physiological processes such as plant growth, development and immunity, including the suppression of biotic and abiotic stresses.

Comprehensive Overview of the Brassinosteroid Biosynthesis Pathways

Brassinosteroids (BRs) as a class of steroid plant hormones participate in the regulation of numerous developmental processes, including root and shoot growth, vascular differentiation, fertility, flowering, and seed germination, as well as in responding to environmental stresses.

Choline chloride and brassinosteroid are two distinct chemical substances that play important roles in plant growth regulators. Choline chloride is an alkaloid that promotes plant growth and development; whereas brassinosteroid is a natural plant hormone capable of regulating the growth processes of plants. These two substances can be used in conjunction during plant growth to achieve better results.

First, we need to understand the basic functions of choline chloride and brassinosteroid. Choline chloride mainly works by promoting the synthesis and transport of proteins within plant cells, thereby stimulating plant growth. Brassinosteroid, on the other hand, is a natural plant hormone that regulates various aspects of plant growth, including the promotion of chlorophyll synthesis and the inhibition of plant senescence. The synergistic use of these two substances during plant growth can lead to enhanced outcomes.

Next, let's examine the specific applications of choline chloride and brassinosteroid in plant growth. In agricultural production, both substances can be utilized as plant growth regulators. For instance, in fruit tree cultivation, applying choline chloride and brassinosteroid can improve the quality and yield of fruits. Similarly, in flower cultivation, these substances can be employed to promote the growth and blooming of flowers.

Furthermore, choline chloride and brassinosteroid can also be used for plant disease prevention. By applying these substances, the disease resistance of plants can be strengthened, reducing the incidence of plant diseases. For example, in rice planting, applying choline chloride and brassinosteroid can help prevent the occurrence of rice blast disease.

In terms of agricultural ecological construction, choline chloride and brassinosteroid also play significant roles. Through rational application of these substances, soil conditions can be improved, soil fertility enhanced, and crop growth promoted. For example, in farmland soil improvement, applying choline chloride and brassinosteroid can increase the water-retaining capacity and fertility level of the soil.

choline chloride and brassinosteroid can be used together during plant growth to achieve superior results. These two substances are crucial in areas such as agricultural production, plant disease prevention, and agricultural ecological construction. it is important to note that when using these substances, one must adhere to correct usage methods and technical specifications to ensure their optimal effectiveness.