Polymer Energy Polymer Energy™ Wealth out of Waste plastic
Jan 23, 2015
Polymer EnergyPolymer Energy™™
Wealth out of Waste plastic
AgendaAgenda
Current Method of waste plastic disposal
• Polymer Energy technology Plastics quality– Industries– Process details– End product quality– Advantages– Status of Current Installations
• Conclusions
Present statePresent state
Land fillLand fill
It takes 1000 to 1 million years for polyethylene bags and waste to break down
• As polyethylene breaks down, toxic substances leach into the soil and enter the food chain, thus Become 100% Non-Green area
• Keep occupying land Plastic bag choke landfills
• On the other hand, Land is a limited resource
• Naturally landfill becomes a costlier proposition.
IncinerationIncineration
1 Kg of polyethylene produces 3.20 kg of Carbon dioxide
• It is one of the worst form air pollution
• Also boosts the global warming
• So it is not fair to considered as a right way of disposal
Polymer equipmentPolymer equipment
Polymer Energy can process Plastic Waste
From the following industries Paper industry
• Refinery
• Food industry
• Chemical industry
• Building industry
• Automotive industry
• Hi-tech industry
• Electric industry
Waste plastic qualityWaste plastic quality
The installation can process:
PE, PP (polyolefin's)-both industrial & municipal waste
Other plastics –car bumpers & computer cases
Key highlight of the systemKey highlight of the systemThe system is designed to process the following types of plastic waste Polyethylene (LDPE, LLDPE & HDPE), and Polypropylene
Up to 5% of other types of plastic tolerated
The reactor can tolerate contaminants such as
glass, paper, soil, metals, and moisture. A modular design allows for easy installation
and plant expansionCapacity of each module is typically 350 tons of waste plastic per month
Output of each module is approximately 720 liters per ton of waste plastic processed
Operating characteristics (1)
Plastic wastes after preliminary segregation, if necessary, (paper, glass, metal elements), are manually loaded with catalyst into press machine
• 3-5 kg of feed can by loaded at one time, 300 kg/hour, 180 ton/month
• Pressed wastes are transported directly to the reactor• There is constant high temperature in the reactor• Plastic wastes are depolymerized• Each reactor has its own heat supply – burner for gas, oil,
biomass• There is molten metal inside the reactor which keeps high
temperature• Catalyst speeds up depolymerization process
Operating characteristics (2)
As a result of depolimerization process gaseous hydrocarbons go to cooling system
• The part of gaseous hydrocarbons (C1-C4) goes back to the heating system
• Hydrocarbons from C5 and higher in liquid state form final product
• Final product – mixture of hydrocarbons – is pumped to the tank (volume 45-60 m3)
• Installation works constantly – 24 hours
• Installation has self cleaning system
• Final solid waste in the form of bitumen equivalent
Final productFinal product
Final product is a mixture of: 20% gasoline range product 50% diesel range product 30% heavy fractions The mixture is sold to the refinery for processing
90C – 190C gasoline fraction 190C – 330C diesel fraction more than 330C – paraffin
Polymer Equipment – Dual Reactors
Plant LocationsPlant Locations
Operating Commercial Sites Qty Size Location 10 10 MT Europe Poland
Sites Under Construction Qty Size Location 12 10 MT India, Thailand, Germany, Slovak Republic and Poland
CertificationCertification
ConclusionConclusion
• Polymer Energy technology can be effectively utilized to convert input plastic wastes from the industry to value added fuel.
• It is a commercially viable alternative to incineration, landfill disposal and recycling.
•The system does not produce large amounts of secondary waste, emissions or poisonous byproducts such as sulphur compounds, phosphorus, arsenic or heavy metals.
Thank youThank you