Sustainable Engineering applied into the PET plastic supply chain. A policy tool for industry and...

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Sustainable Engineering Sustainable Engineering applied into the PET applied into the PET plastic supply chain. A plastic supply chain. A policy tool for policy tool for industry and industry and government. government. Dr. Omar Romero Dr. Omar Romero

Transcript of Sustainable Engineering applied into the PET plastic supply chain. A policy tool for industry and...

Page 1: Sustainable Engineering applied into the PET plastic supply chain. A policy tool for industry and government. Dr. Omar Romero.

Sustainable Engineering Sustainable Engineering applied into the PET plastic applied into the PET plastic supply chain. A policy tool supply chain. A policy tool

for industry and government.for industry and government.

Dr. Omar Romero Dr. Omar Romero

Page 2: Sustainable Engineering applied into the PET plastic supply chain. A policy tool for industry and government. Dr. Omar Romero.

Background: PETBackground: PET

Page 3: Sustainable Engineering applied into the PET plastic supply chain. A policy tool for industry and government. Dr. Omar Romero.

PET Market distributionPET Market distribution

Soft drinks52.8 %

Bottled water15 %

Page 4: Sustainable Engineering applied into the PET plastic supply chain. A policy tool for industry and government. Dr. Omar Romero.

Simulation Model

Page 5: Sustainable Engineering applied into the PET plastic supply chain. A policy tool for industry and government. Dr. Omar Romero.

Demand Forecast for PET

BottlePET

Carbonates

Water

Oil

Food

Others 1Usage

Film PET

TextilePET

Others 2 (Potential)

Others 3 (Potential)

PET demand’s histogram

BottlePET

Carbonates

Water

Oil

Food

Others 1Usage

Film PET

TextilePET

Others 2 (Potential)

Others 3 (Potential)

PET demand’s histogram

Page 6: Sustainable Engineering applied into the PET plastic supply chain. A policy tool for industry and government. Dr. Omar Romero.

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DemandaF

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Results after 1,000 simulations:

Demand Forecast for PET

Page 7: Sustainable Engineering applied into the PET plastic supply chain. A policy tool for industry and government. Dr. Omar Romero.

COMPOSICIÓN DEL MERCADO DE PET EN MÉXICO

Refresco

Agroquímicos

AguaFilm

AceiteAlimentos

Otros

0

200000

400000

600000

800000

1000000

2003 2004 2005 2006 2007

Año

ton

/añ

o

Refresco Agroquímicos Agua Film Aceite Alimentos Otros

Demand Forecast for PET

Page 8: Sustainable Engineering applied into the PET plastic supply chain. A policy tool for industry and government. Dr. Omar Romero.

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2 0000

4 0000

6 0000

8 0000

1 00000

1 2 0000

2003 2004 2005 2006 2007

Año

VOLUMEN TOTAL DE ACOPIO

Volumen(tons PET)

Waste collection forecast

YEAR

Page 9: Sustainable Engineering applied into the PET plastic supply chain. A policy tool for industry and government. Dr. Omar Romero.

TASA DE ACOPIO

0.00%

5.00%

10.00%

15.00%

20.00%

2003 2004 2005 2006 2007

Año

Rate of waste collection

YEAR

Page 10: Sustainable Engineering applied into the PET plastic supply chain. A policy tool for industry and government. Dr. Omar Romero.

ENVIRONMENTAL PERFORMANCE System Analysis:

CHINA

STATESUNITED

Electricity

MEXICO

Recycler 1

Recycler 2

Recycler 3

Other

Recyclers national

Port

Manzanilloand Nuevo Laredo

EXPORTS

Centers

Transfering

Landfill

Collection Center

Blow Forming Bottle Filling

HDPE

COSTUMER

PP

Electricity

MEXICO

PET

grade

bottle

Page 11: Sustainable Engineering applied into the PET plastic supply chain. A policy tool for industry and government. Dr. Omar Romero.

Results LCA

1 p

Life Cycle

1 p

Beverage

5,04E6 kg

HDPE

4,29E8 kg

PET

4,53E7 kg

PP

3E7 MJ

Electricity

4,29E8 kg

Blowing

1,42E7 kg

Cardboard

4,29E6 kg

HDPE

5,25E9 MJ

Electricity

4,79E8 kg

Waste

1,2E7 kg

Recycling

1,88E7 MJ

Electricity

-1,2E7 kg

RecycledPET

3,45E7 kg

Export

1 p

Life Cycle

1 p

Beverage

5,04E6 kg

HDPE

4,29E8 kg

PET

4,53E7 kg

PP

3E7 MJ

Electricity

4,29E8 kg

Blowing

1,42E7 kg

Cardboard

4,29E6 kg

HDPE

5,25E9 MJ

Electricity

4,79E8 kg

Waste

1,2E7 kg

Recycling

1,88E7 MJ

Electricity

-1,2E7 kg

RecycledPET

3,45E7 kg

Export

Page 12: Sustainable Engineering applied into the PET plastic supply chain. A policy tool for industry and government. Dr. Omar Romero.

Results LCA (Waste Scenario)

1 pWaste

Scenarios-4,23E7

4,79E8 kg

Waste

1,2E7 tkm

Transport

2,3E7 MJ

Diesel

1,2E7 kg

Recycling

1,88E7 MJ

Electricity

-1,2E7 kg

PETRecycled

3,45E7 kg

Export 1

3,89E7 tkm

Transport

4,14E6 MJ

Electricity

7,19E6 kg

Export 2

7,82E6 tkm

Trasnport

1 pWaste

Scenarios-4,23E7

4,79E8 kg

Waste

1,2E7 tkm

Transport

2,3E7 MJ

Diesel

1,2E7 kg

Recycling

1,88E7 MJ

Electricity

-1,2E7 kg

PETRecycled

3,45E7 kg

Export 1

3,89E7 tkm

Transport

4,14E6 MJ

Electricity

7,19E6 kg

Export 2

7,82E6 tkm

Trasnport

Page 13: Sustainable Engineering applied into the PET plastic supply chain. A policy tool for industry and government. Dr. Omar Romero.

Results LCA (Waste Scenario)

Page 14: Sustainable Engineering applied into the PET plastic supply chain. A policy tool for industry and government. Dr. Omar Romero.

Results LCA (Waste Scenario))

Page 15: Sustainable Engineering applied into the PET plastic supply chain. A policy tool for industry and government. Dr. Omar Romero.

GWP Total (Escenario a y b)

2.95E+09

3.00E+09

3.05E+09

3.10E+09

3.15E+09

3.20E+09

3.25E+09

3.30E+09

3.35E+09

3.40E+09

3.45E+09

0 20 40 60 80 100

% Acopio

kg C

O2

eq

escenario a

escenario b

Results LCA (Waste Scenario)

Page 16: Sustainable Engineering applied into the PET plastic supply chain. A policy tool for industry and government. Dr. Omar Romero.

Alternative for improving PET plastic recycling rates:

Deposit-refund schemes have been successfully incorporated in developed countries.

Should México follow the same sustainable solution?

Page 17: Sustainable Engineering applied into the PET plastic supply chain. A policy tool for industry and government. Dr. Omar Romero.

Waste collection facilities in MexicoPET

However, two problems have to be addressed before

PET waste is re-processed...

Page 18: Sustainable Engineering applied into the PET plastic supply chain. A policy tool for industry and government. Dr. Omar Romero.

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$c

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Problem 1: International Price fo Recycled PET1995-2002

Page 19: Sustainable Engineering applied into the PET plastic supply chain. A policy tool for industry and government. Dr. Omar Romero.

Problem 2: Landfill scenario

The fact that a sustainable solution (such as deposit-refund) performs well in a developed country does not

necessary mean that it will also succed when applied in a developing country.

Page 20: Sustainable Engineering applied into the PET plastic supply chain. A policy tool for industry and government. Dr. Omar Romero.

Current status and future trends:

Price guarantee for each kg of PET collected

Co-responsibility between Society-Industry-Government

School recycling contestMedia campaign

Industry initiatives should go beyong current legislation