Product Manager: Selina Zhang; Email: selina@coreychem.com
| Product Name | Boron triiodide |
| Synonyms | BORON IODIDE;BORON TRIIODIDE;BI;BI3;Borane, triiodo-;Borane,triiodo-;triiodo-boran;Triiodoborane |
| CAS NO | 13517-10-7 |
| Purity |
98% |
| Appearance |
White crystals |
| MF | BI3 |
| MW | 391.52 |
| Contact | selina@coreychem.com |
Boron triiodide (CAS: 13517-10-7) is a highly reactive inorganic compound widely used in organic synthesis, material chemistry, and functional compound development. Featuring a strong Lewis acidic boron center coordinated with three iodide ligands, it enables efficient halogenation and demethylation reactions, making it a versatile reagent for complex molecule construction. Its primary applications are outlined below:
1. Organic Synthesis & Pharmaceutical Research
Demethylation & Halogenation Reactions
Boron triiodide is commonly employed to selectively cleave methyl ethers and other protecting groups, providing access to reactive intermediates for downstream transformations in medicinal chemistry and natural product synthesis.
Intermediate for Bioactive Molecules
It serves as a key reagent in the preparation of boron-containing intermediates, heterocycles, and functional scaffolds, supporting structure–activity relationship (SAR) studies and synthetic route optimization.
2. Advanced Material & Functional Compound Development
Boron-Containing Materials
The compound is utilized in the synthesis of boron-doped organic materials, functional polymers, and conjugated frameworks, contributing to the development of optoelectronic, electronic, and luminescent materials.
Specialty Chemical Applications
Boron triiodide acts as a building block for the construction of tailored boron-based intermediates, ligands, and heteroatomic compounds for applications in chemical biology and material science.
3. Research & Development Applications
Reaction Mechanism & Method Exploration
Researchers use boron triiodide to study Lewis acid-catalyzed reactions, investigate halogenation pathways, and explore structure–reactivity relationships in organoboron chemistry.
Process Optimization & Laboratory-Scale Synthesis
Its predictable reactivity and high purity make it ideal for method development, reaction optimization, and small-scale experimental synthesis.
4. Handling & Storage
Storage Conditions
Store under inert atmosphere in tightly sealed containers, away from moisture, heat, and light to maintain stability and prevent decomposition.
Intended Use
Boron triiodide is intended for research, development, and industrial synthesis applications. It is not for direct pharmaceutical, food, or consumer use without proper regulatory approval.
Summary
The value of boron triiodide lies in its strong Lewis acidity and high halogen reactivity, enabling efficient demethylation, iodination, and boron-based intermediate synthesis. It is a critical reagent for organic synthesis, material innovation, and specialty chemical development, supporting advancements in medicinal chemistry, functional materials, and fine chemical research.
