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April 2019 Conference Series LLC Ltd

30

6

th

World Congress on

Climate Change and Global Warming

April 24-25, 2019 | Vancouver, Canada

ACCEPTED ABSTRACT

JOURNAL OF EARTH SCIENCE & CLIMATIC CHANGE, 2019 VOLUME 10 | DOI: 10.4172/2157-7617-C1-057

High energy fuel

production by

optimization of waste

polymers pyrolysis

Diana Bustos

Nuevo Leon University, Mexico

P

olymers are among the

most popular materials

used in modern societies. The

applications of polymers go from

high corrosion and temperature

long-lasting components to

one-time use applications

containers; such as those used

for food, beverages, liquids

and a number of products

consumed in our daily life. It

is estimated that worldwide,

more than 100millions of tons

of plastic are wasted every year

after one single use. Due to

its high stability, most of these

materials remain undegraded for

decades, polluting the land, air

and water with the consequent

negative impact on humans and

animal life. In recent years, an

alternative that has called the

attention is the use of pyrolytic

process to transform wasted

materials into fuels and other

chemicals compounds, as an

alternative to reduce the amount

of material disposed of and

at the same time, to generate

products of economic interest. In

this project, a pyrolytic process

was implemented in order to

thermally decompose High-

Density Polyethylene (HDPE) into

products with applications as

fuel with high energy content.

The HDPE was initially evaluated

in a Thermogravimetric analyzer

Q500, with this information the

pyrolytic reactor was adjusted at

600°C, at a heating rate of 20°C/

min and flow of 40mL/min of N

2

.

25g of HDPE with a mean particle

size of 5mm were treated during

25minutes. After that, the

pyrolysis products were analyzed

by Fourier-Transform Infrared

Spectroscopy to determine

its higher heating value (HHV)

and the functional chemical

groups present. Additionally,

a second test was performed,

reducing the HDPE mass to 15g

and increasing the temperature

to 700°C. The obtained results

from the first test showed that

the products obtained have an

HHV of 47MJ/kg, which is an

encouraging finding, considering

the HHV of diesel and gasoline

are 45 and 44MJ/kg respectively.

With respect to the second

evaluation, the results proved

that an increase in the reaction

temperature decreases the

density of the products which

facilitates its manipulation and

application as high energy fuel.

evalenzuela.mondaca@uabc.edu.

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