Authors :
Prachi Singh; Rahul Kumar; Avinesh Singh; Md Sameer; Manish S. Khodwe
Volume/Issue :
Volume 9 - 2024, Issue 4 - April
Google Scholar :
https://tinyurl.com/2zpcac8b
Scribd :
https://tinyurl.com/y36pjtt3
DOI :
https://doi.org/10.38124/ijisrt/IJISRT24APR2455
Note : A published paper may take 4-5 working days from the publication date to appear in PlumX Metrics, Semantic Scholar, and ResearchGate.
Abstract :
Porous activated carbon (PAC) powder is
prepared from solid bio-waste - cow dung samples (CD).
UV- Spectroscopy confirms the absorption rate of
activated porous biochar at different concentration
solutions(in ppm).The activation process is carried out by
phosphoric acid and sodium hydroxide treatment followed
by calcination at different temperature condition. XRD
pattern confirms the amorphous phase formation with
graphitic nature for different precursor utilization. SEM
analysis shows the uniform and hierarchical porous
network formation and aggregated particle with tiny. X-
ray analysis confirms the formation of graphitic carbon
and porous morphology for sample activated at increased
calcination temperature. The elemental composition of as
prepared carbon samples is determined by SEM and
confirms the formation major carbon content existence.
The obtained product is observed for the dye removal
process wherein the specific amount of PAC is added to
the Methylene Blue(MB) dye solutions and the absorption
rate is observed through uv-spectroscopy.
Keywords :
Pyrolysis, Biochar, Porous Activated Carbon Powder, Methylene Blue, Solid Waste Management, SEM Analysis, XRD, UV-Spectroscopy.
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Porous activated carbon (PAC) powder is
prepared from solid bio-waste - cow dung samples (CD).
UV- Spectroscopy confirms the absorption rate of
activated porous biochar at different concentration
solutions(in ppm).The activation process is carried out by
phosphoric acid and sodium hydroxide treatment followed
by calcination at different temperature condition. XRD
pattern confirms the amorphous phase formation with
graphitic nature for different precursor utilization. SEM
analysis shows the uniform and hierarchical porous
network formation and aggregated particle with tiny. X-
ray analysis confirms the formation of graphitic carbon
and porous morphology for sample activated at increased
calcination temperature. The elemental composition of as
prepared carbon samples is determined by SEM and
confirms the formation major carbon content existence.
The obtained product is observed for the dye removal
process wherein the specific amount of PAC is added to
the Methylene Blue(MB) dye solutions and the absorption
rate is observed through uv-spectroscopy.
Keywords :
Pyrolysis, Biochar, Porous Activated Carbon Powder, Methylene Blue, Solid Waste Management, SEM Analysis, XRD, UV-Spectroscopy.