Cat. No JK229192_2.5_KG
J&K Chemical

Product Information

Product Name
2,2',2''-Nitrilotriethyl borate, 97%
Brand Name
J&K
Product Number
229192
CAS
283-56-7
Molecular Formula
C6H12BNO3
Molecular Weight
156.98
SDS Document
Certificate of Analysis (COA)​
COA not found

General Information

Synonyms
Triethanolamine borate
PubChem CID
84862
IUPAC Name
2,8,9-trioxa-5-aza-1-borabicyclo3.3.3undecane
InChI Key
NKPKVNRBHXOADG-UHFFFAOYSA-N
SMILES
B12OCCN(CCO1)CCO2

Properties

Melting Point
235-237

Safety Information

Signal Word
Warning
Hazard Statement
H315
H319
H335
Precautionary Statement
P280
P321
P261
P271
P319
P405
P501
P302+P352
P332+P317
P362+P364
P264+P265
P305+P351+P338
P337+P317
P304+P340
P403+P233

Description

Product Introduction

Triethanolamine Borate (CAS No. 283-56-7) is a cyclic borate compound formed from triethanolamine and boron-containing functional groups. It is widely used as a specialized boron-containing reagent in organic synthesis, analytical chemistry, lubricant additives, and functional material research.

Due to its unique boron–nitrogen–oxygen heterocyclic structure, Triethanolamine Borate exhibits excellent coordination ability and chemical stability, making it useful in the preparation of boron-containing compounds, complexation studies, and industrial formulation research.

This compound is also investigated as a functional additive in areas requiring boron chemistry, metal coordination, and performance-enhancing additives.

 

Mechanism / Principle

Boron Coordination and Complex Formation

Triethanolamine Borate functions through the interaction between boron centers and oxygen/nitrogen donor atoms.

Working principle:

  1. The boron atom forms coordination interactions with oxygen-containing groups.
  2. The triethanolamine framework stabilizes the boron-containing cyclic structure.
  3. The compound can participate in boron transfer, coordination, or complexation reactions.
  4. These properties enable its use in synthesis and functional formulations.

Key features:

  • Stable boron-containing heterocyclic structure
  • Good coordination capability
  • Useful precursor for boron-containing materials
  • Supports boron chemistry research

 

Key Research Applications

1. Boron Chemistry and Organic Synthesis

Triethanolamine Borate is used as a boron-containing reagent in synthetic chemistry.

Applications include:

  • Preparation of boron-containing compounds
  • Borate ester synthesis
  • Organic reaction studies
  • Functional molecule development

 

2. Coordination Chemistry Research

The compound is investigated for its coordination behavior.

Applications include:

  • Metal–boron interaction studies
  • Complex formation research
  • Ligand chemistry
  • Inorganic-organic hybrid systems

 

3. Lubricant and Industrial Additive Research

Boron-containing compounds are commonly explored as performance additives.

Applications include:

  • Lubricant additive development
  • Friction and wear studies
  • Extreme-pressure additive research
  • Functional formulation design

 

4. Analytical Chemistry

Triethanolamine Borate can be used in boron-related analytical studies.

Applications include:

  • Boron compound analysis
  • Chemical identification studies
  • Coordination behavior evaluation

 

5. Functional Materials Research

Boron-containing molecules are important building blocks for advanced materials.

Applications include:

  • Boron-based functional materials
  • Polymer additive research
  • Material modification studies

 

Advantages

  • Stable boron-containing compound
  • Useful coordination properties
  • Versatile synthetic intermediate
  • Suitable for boron chemistry research
  • Applicable in additive and material studies
  • Compatible with organic and inorganic synthesis

 

Technical Notes

Parameter Information
Application Boron-containing reagent
Chemical Function Borate ester / coordination compound
Main Research Use Synthesis and boron chemistry studies
Form White powder
Analytical Methods NMR, HPLC, elemental analysis

Note: Reaction conditions should be optimized according to the target application and reaction system.

 

Storage & Handling

  • Store in a cool, dry place.
  • Keep the container tightly sealed.
  • Protect from moisture.
  • Avoid prolonged exposure to humid environments.
  • Handle with appropriate laboratory protective equipment.

Triethanolamine Borate should be stored under dry conditions to maintain product stability.

 

Research Areas

Researchers working in the following fields may benefit from Triethanolamine Borate:

  • Organic synthesis
  • Boron chemistry
  • Coordination chemistry
  • Materials chemistry
  • Lubricant additive research
  • Analytical chemistry
  • Functional material development

FAQ

Q1: What is Triethanolamine Borate?

A: Triethanolamine Borate (CAS No. 283-56-7) is a boron-containing cyclic compound used in synthesis, coordination chemistry, and functional material research.

 

Q2: What is Triethanolamine Borate used for?

A: It is mainly used for:

  • Boron chemistry research
  • Organic synthesis
  • Coordination studies
  • Additive development

 

Q3: What is the role of boron in Triethanolamine Borate?

A: The boron center provides coordination capability and enables interactions with oxygen- and nitrogen-containing molecules.

 

Q4: Is Triethanolamine Borate used as a catalyst?

A: It is mainly used as a boron-containing reagent and functional compound rather than a general-purpose catalyst.

 

Q5: Can Triethanolamine Borate be used in materials research?

A: Yes. Boron-containing compounds are investigated for polymer modification, functional materials, and additive applications.

 

Q6: What is the difference between Triethanolamine Borate and Boric Acid?

Property Triethanolamine Borate Boric Acid
Structure Organic borate compound Inorganic boron acid
Formula C₆H₁₂BNO₃ H₃BO₃
Application Functional reagent/additive General boron source

 

Q7: How should Triethanolamine Borate be stored?

A: Store sealed in a dry environment and protect from moisture.

 

Q8: What analytical methods are used for Triethanolamine Borate characterization?

A: Common methods include NMR, HPLC, and elemental analysis.

2,2',2''-Nitrilotriethyl borate, 97%

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