Jump to main content
US EPA
United States Environmental Protection Agency
Search
Search
Main menu
Environmental Topics
Laws & Regulations
About EPA
Health & Environmental Research Online (HERO)
Contact Us
Print
Feedback
Export to File
Search:
This record has one attached file:
Add More Files
Attach File(s):
Display Name for File*:
Save
Citation
Tags
HERO ID
8112751
Reference Type
Journal Article
Title
Excess acoustical properties and molecular interactions in ternary liquid mixtures of 3(Meta)methoxy phenol, 1 propanol and n- hexane at 303 k, 308 k & 313 k using ultrasonic techniques
Author(s)
Syed Ibrahim, PS; Murugan, JS; Chidambaravinayagam, S; Edward Jeyakumar, J
Year
2019
Publisher
Blue Eyes Intelligence Engineering and Sciences Publication
Volume
8
Issue
10 Special Issue
Page Numbers
99-105
Language
English
DOI
10.35940/ijitee.J1018.08810S19
Abstract
The Ultrasonic velocity(U), density(Ï), and viscosity(η) have been measured experimentally for the ternary liquid mixtures of 3(meta) methoxy phenol(MMP), 1 propanol and n hexane at various temperatures viz., 303 K, 308 K and 313 K at constant frequency of 2 MHz. for different concentrations ranges from 0.001M to 0.01M. The thermodynamic and acoustical parameters such as adiabatic compressibility(β), Rao constant(R), absorption coefficient (α/f2), internal pressure(Ïi), cohesive energy(CE), free volume(Vf), free length(Lf), acoustic impedence(z), available volume(Va), viscous relaxation time and Lenard Jones potential were calculated from the experimental data. The various excess properties including excess Ultrasonic velocity, excess acoustic impedence, excess free length, excess adiabatic compressibility, excess free volume and excess internal pressure were also computed. The variation of these excess parameters with respect to concentration and temperatures have been discussed in the light of molecular interaction. The molecular interactions were predicted based on the results obtained for ultrasonic velocities of different concentrations of the ternary mixtures at different temperatures. © BEIESP.
Keywords
Acoustic impedence; Internal pressure; Molecular interactions; Ternary liquid mixture; Ultrasonic velocity
Home
Learn about HERO
Using HERO
Search HERO
Projects in HERO
Risk Assessment
Transparency & Integrity