Authors :
Neetu Rathore, Asita Kulshreshtha, Rajesh Kumar Shukla
Volume/Issue :
Volume 5 - 2020, Issue 4 - April
Google Scholar :
http://bitly.ws/9nMw
Scribd :
https://bit.ly/3b8miZ0
DOI :
10.38124/IJISRT20APR854
Abstract :
Lithium tetraborate has attracted much
attention as a potential radiation-proof material for an
optical device. it is used as a tissue-equivalent material
for radiation dosimetry. In the present investigation, we
report the preparation of lithium tetraborate (LTB)
nanoparticles by a solid -state method with high energy
ball-milling along with different parameter. Different
milling parameter was optimized to acquire essential
particle sizes. The crystalline size obtained from XRD
data is found within the range of 31-35 nm. The
morphological study was carried out using Scanning
electron microscope. The structural properties of
Lithium tetraborate was studied by Fourier transform
infrared (FTIR) Spectroscopy
Keywords :
Nanostructured Materials; High Energy Ball Milling Methods; XRD; FTIR; SEM.
Lithium tetraborate has attracted much
attention as a potential radiation-proof material for an
optical device. it is used as a tissue-equivalent material
for radiation dosimetry. In the present investigation, we
report the preparation of lithium tetraborate (LTB)
nanoparticles by a solid -state method with high energy
ball-milling along with different parameter. Different
milling parameter was optimized to acquire essential
particle sizes. The crystalline size obtained from XRD
data is found within the range of 31-35 nm. The
morphological study was carried out using Scanning
electron microscope. The structural properties of
Lithium tetraborate was studied by Fourier transform
infrared (FTIR) Spectroscopy
Keywords :
Nanostructured Materials; High Energy Ball Milling Methods; XRD; FTIR; SEM.
