Organic Chemistry
- • Amides (2624)
- • Alcohols, Phenols, Phenol Alcohols (327)
- • Nitrogen Compounds (256)
- • Nitrile Compound (91)
- • Hydrazine or Hydroxylamine Derivatives (213)
- • Quinones (38)
- • Ethers and Derivatives (186)
- • Aldehydes (116)
- • Carboxylic Acids and Derivatives (792)
- • Hydrocarbons and Derivatives (2315)
- • Ketones (76)
- • Inorganic Acid Esters (172)
- • Heterocyclic Ring (347)
- • Organometallic Compounds (974)
- • Organosulfur Compounds (74)
- • Phosphines (726)
- • Organometalate (285)
- • Organic Fluorine Compound (2121)
- • Triazenes (18)
- • Semicarbazides (33)
- • Organoselenium Compounds (28)
- • Nitro Compounds (96)
- • Nitrates (15)
- • Lactones (240)
- • Imines (24)
- • Free Radicals (48)
- • Dioxins and Dioxin-like Compounds (31)
- • Cyanates (31)
- • Coordination Complexes (3059)
- • Boron Compounds (84)
- • Azides (66)
- • Arsenicals (56)
Related News
-
What are five facts about Boron and its use?
2022-11-30
Boron Compounds
-
Chemical Grade / 99%
$1/KG FOB
-
- / 0.00%
-
industrial Grade / 98%
-
Pharmaceutical Grade / 0%
Request for quotation , get quotes from more suppliers.
-
Pharmaceutical Grade / 99%
-
Chemical Grade / -
$100/KG FOB
-
Industrial Grade / 99%
-
Request for quotation , get quotes from more suppliers.
-
Industrial Grade / 99%
-
Industrial Grade / 99%
-
Industrial Grade / 99.0%
-
Request for quotation , get quotes from more suppliers.
Source Boron Compounds Raw Materials by Region
Frequently Asked Questions
Boron compounds are chemical substances containing boron, a metalloid element known for its unique bonding properties. Common examples include boric acid, borax (sodium borate), and boron carbide. These compounds are widely used in industries such as glass manufacturing (e.g., heat-resistant borosilicate glass), agriculture (as micronutrient fertilizers), flame retardants, ceramics, and semiconductors. Their versatility stems from boron’s ability to form stable covalent bonds and complex structures.
In agriculture, boron compounds serve as essential micronutrients for healthy plant growth. Boron is critical for cell wall formation, sugar transport, and reproductive development in crops. Deficiencies can lead to stunted growth and reduced yields, especially in fruits, vegetables, and legumes. Farmers often apply boron-based fertilizers like borax or solubor to correct soil deficiencies. Proper application rates are vital, as excessive boron can be toxic to plants.
While many boron compounds are low in toxicity, proper safety precautions are necessary during handling. Inhalation or ingestion of high concentrations—especially of fine powders like boric acid—can cause health issues. Users should wear protective equipment such as gloves, goggles, and masks, and ensure adequate ventilation. Storage should be in labeled, sealed containers away from food and children. Always follow the Safety Data Sheet (SDS) guidelines provided by the manufacturer.
When sourcing industrial-grade boron compounds, buyers should evaluate: 1. Purity level and specification compliance (e.g., ASTM or ISO standards).2. Supplier certifications, including ISO 9001 for quality management.3. Consistency of supply and packaging options suitable for intended use.4. Technical support and documentation, such as certificates of analysis (CoA).5. Environmental and safety compliance records. Choosing a reputable supplier ensures product reliability and minimizes production risks.