“The Great Pacific Garbage Patch” (GPGP), covers an estimated
area of 1.6 million square kilometers, an area twice the size of Texas
or three times the size of France.
To formulate this number, a team of scientists behind this study
conducted the most elaborate and ever-harmonized sampling
method. It included a fleet of 30 boats, 652 surface nets and two
flights over the patch to collect aerial photographs of debris. The
sampling in different locations within the same time allowed for a
more accurate assessment of the size of the sticker and the plastic
drifting in it.
As the crisis escalated in our natural world, we refuse to stay
away from climate disaster and species extinction. The environment
is a top priority. We discuss the climate, nature, and pollution of the
bulge it deserves stories that are often not reported by others. At
this central stage for our species and our planet, we are determined
to inform readers of threats, consequences and solutions based on
scientific facts, not political prejudice or business interests. More
people are reading and helping journalism than investigative reports.
And unlike many organizations, we chose an approach that allows us
to keep as accessible to all, regardless of where they live or what they
can afford. But we need your continued support to continue working
as we do.
With this in mind, the cleanups of the oceanic plastic pile and
applying it to something useful for people like conversion into energy
and clothing, is discussed in this paper.
Today, plastics are derived almost entirely from petrochemicals
produced from fossil and gas oil. Around 4 percent of annual oil
production is converted directly from plastic from petrochemical raw materials. As the production of plastics also requires energy, its
production is responsible for consuming an additional similar amount
of fossil fuels. However, it can also be argued that the use of lightweight
plastics can reduce the use of fossil fuels, for example in transport
applications when plastics replace heavier conventional materials such
as steel.
Cleanup and Harvesting Plastic Oceanic
Depositions
A San Francisco-based waste and energy development company
has announced the closing of a $260 million knancing package for the
construction of what it says is the nation’s krst commercial-scale plasticsto-fuel plant, which will be located in Ashley, Indiana (Figure 2).
The Dutch company Ocean Cleanup said it had successfully raised
$21.7 million in donations to initiate the first large-scale trials of its
Pacific cleaning technology later this year [3-5] (Figure 3).
This significant round of funding is led by San Francisco-based
philanthropists Mark and Lynn Benioff and an anonymous donor. Other
sponsors include the Julius Baer Foundatiation, DSM Royal, and Silicon
Valley entrepreneur / investor Peter Thiel.
The foundation has recently conducted experiments in the North
Sea to test the behavior of a newly developed boom on waves.
Lately, people deployed System 001 to the “Great Pacific” garbage
bag - marking the first attempt to begin cleaning it. During the last
campaign, we have confirmed many key assumptions of design, but also
encountered two unplanned learning opportunities: the system did not
maintain sufficient speed, allowing the plastic to exit the system, and
pressure concentration caused fatigue fracture in HDPE floater.
With the understandings from the root cause of analysis, the
engineering team started working on solutions that we can start
experimenting at the Great Garbage and Repair (GPGP). The upgraded
design, which we called ‘001 / B’, will include various changes (listed
below) that will be reviewed during our next campaign. By adapting
the design to cope with these unknown learning opportunities,
we strive to have a system that can effectively capture plastics and
withstand ocean forces (Figure 4)
Plastic Waste Pyrolysis to Oil Production Line
Amazing machine transform plastic bags into fuel
Humans produce hundreds of millions of tons of plastic every
year. But a very small portion of it is recycled. According to a study
published in the journal Science in 2017 [6], as 12.7 million tons of
plastic waste finds its way into the ocean each year (Figure 5).
The usual method for converting plastics into fuel is based on
pyrolysis [7]. This involves breaking the long plastic hydrocarbon
chains at higher temperatures in the absence of oxygen, followed by
some refining steps. The method can be energy-intensive, expensive,
and time-consuming [8].
Is the center of the American developed and applied technology?
A reasonable research pair may be a solution. Sailing boat James H.
Holm and polymer scientist Swaminathan Ramesh are developing
a portable reactor that can turn plastic into diesel fuel. Technology
can reduce plastic waste on land and sea, and create cleaner, cheaper
fuel [9]. “Ridding the Oceans of Plastics by Turning the Waste into
Valuable Fuel.”
The reactor, which can fit in a shipping container or on a boat,
can someday convert ocean plastic waste into fuel for the ship,
researchers hope (Figure 6).
The machine: He warms the plastic with electricity, and then
binds the steam, and then he cools and thickens Crude Oil. Crude
oil can be used to heat electricity-producing generators and some
furnaces, and when refined, it can be used for gasoline. When
scientists first created the process, Ito explained that by converting
plastic into oil, we eliminate CO2 pollution and raise awareness of the
fuel potential of plastic. When plastic is burned– a Usually to recover
potential energy sources - it produces a large amount of toxins
andCO2
. While the final product is still a fuel that will be burned and
let the CO2
, innovative. The recycling method can revolutionize the
way certain plastics are treated. Because of the system. It is made for
households; it can create energy independence among consumers.
We may assume that the oceanic plastic trash is collectable and
the technology to convert it to fuel products is also available [10].
Millions of tons of the world’s plastic waste could
be turned into clean fuels, other products through
chemical conversion. (Purdue University)
Recently, Use of Supercritical Water for the Liquefaction of
Polypropylene into Oil. About five billion tons of plastic waste
has already accumulated in landfills and the natural environment
over the last 50 years. Polypropylene [11] waste (PP) accounts for
approximately 23% of total plastic waste. The conversion of PP
waste into useful products can reduce accumulated waste and the
risks associated with the environment and human health. In this
study, the PP model was converted to oil using supercritical water
at 380-500°C and 23 MPa at a reaction time of 0.5-6 h. Up to 91% wt
of the PP model was converted to oil at 425°C with a reaction time
of 4 - 4 hours or at 450°C with a reaction time of 0.5-1 hours. Higher
response temperatures (450°C) or greater reaction times (> 4 hours)
led to additional gas products. The oil products included olefins,
paraffin’s, cyclic and aromatics. Approximately 80-90% wt of the oil
components were in the same boiling range as nitrate (25-200°C)
and heating values of 48-49 MJ / kg. The reaction paths for converting
the PP model to oil under tested conditions were suggested. This
conversion process is positive in net energy and may have higher
energy efficiency and lower greenhouse gas emissions than fire and
mechanical recycling. The PP derived oil has the potential to be used
as a gasoline mixture or raw material for other chemicals.
Making Textiles and Recycled Plastic Clothing [12]
It is necessary to providing the information to change the attitude
and human behavior on plastics. Efforts are also made by clothing
brands, retailers and other organizations to change the situation.
Referring to a much broader problem of the current criminal
pollution crisis, companies are recycling plastic waste to create new
clothes and increase awareness among their consumers.
It is obvious to rely on municipal recycling programs. After
collecting the bottles, the bottles are clearly separated from the other
colored bottles. Cleaning the bottles will create a white thread, and
naturally colored bottles create a green thread, or whatever the color
of the bottle was.
The next step is to shred the bottles into tiny pieces and separate
the balls and labels from the bottle material. The soda cap or water bottle is actually a different type of plastic than the PET bottle itself.
Then the grated mass is dried (Figure 7).
Now it is time for the carrots to begin their transformation into
something that can be used again. This happens with a machine
called extruder. The plastic is heated and forced through tiny holes
that resemble something like a shower head to form fibers. Beautiful
fibers, long strands. After that, they are torn into pieces into short
pieces, so the fibers are not strands. Then he is on bail and he is finally
ready to make a thread. At this time the fibers very close to wool, as
we shall see below (Figure 8).
Clothes are a daily necessity, and many have an essential form of
expression. However, as we continue to study the degree of impact of
human actions on our environment, sustainability is becoming one of
the central themes of the textile and clothing industry
According to a report by the Arkard Foundation’s violent
fund published in 2017, fashion production currently generates
a greenhouse emission of 1.2 billion tons per year. It is estimated
that more than half of the fast-paced fashion production is dead
within a year, one garbage truck full of textiles is land filled or burnt
Every second, combined with a meager rate of recycling, leads to
constant pressure on resources. Textile production (including cotton
agriculture) also uses around 93 billion cubic meters of water per
year, contributing to problems in rare areas of water (Figure 9).
While turning recycled plastic into clothes provides an appealing
solution to the amount of plastic waste floating in the oceans or
covering the country, there are also concerns that this approach
may do more damage when it comes to another form of plastic
contamination - micro plastics. It is estimated that half a million
tons of plastic microfibers, equivalent to more than 50 billion plastic
bottles, pour during rinse ends in the ocean and eventually enters
the food chain. According to Dr. Mark Brown, an ecologist and
postdoctoral fellow at The National Center for Ecological Analysis
and Synthesis (NCEAS) in Santa Barbara, California, USA, whenever
a synthetic garment goes through a cycle and rinses with a washing
machine, it pours a large number of plastic fibers, and most washing
machines have no filters to unify these particles, No sewage plants.
Despite the dangers of plastic microfibers, however, recycling
plastic into clothes may still be its benefits. According to Adrian
Midwood, founder of Leisure Leisure Group, turning plastic bottles
into new objective objects may help capture plastic waste and also
create some jobs in areas where waste management or recycling
programs are available, preventing large-scale pollution.
Incineration Versus Recycling: in Europe, a Debate
Over Trash
For short communities on landfill area [13], “waste to energy”
fire sounds like Solution bullet: Recycle whatever you can, and turn
the rest to heat or electricity. This is how it is considered in much
of Europe, where almost a quarter of all municipal solid waste
is burned in 450 incinerators, and more and more in the United
States countries, where dozens of cities and towns are considering
new plants, cutting. But the leaders of the international movement zero waste, which seeks to reuse all products and send anything to
landfills or crematoria, says fire falls on the energy front actually
encourages waste. Many “zero wasters “- includes groups such as
Zero global waste Europe United States Crematorium Alternatives,
or GAIA - have become ardent opponents of technology, arguing that
supporters have co-opted carefully label zero waste by offering that
fire produce no energy actually wasting. In Europe, there burning
capacity continues to grow even though it has already gone beyond
the trash supplies in some countries; the conflict goes beyond
semantics to the heart of meaning and sustainability (Figure 10).