The world of bioplastics 2010
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Transcript of The world of bioplastics 2010
Biobased Plastics Major focus is on the “origin of life” or where did the carbon come from
(ASTM D6866). Uses C14 content measurement.
Biodegradable (Compostable) PlasticsFocus is on “end of life or disposal.”
Independent of Carbon Source StandardsEN 13432 and ASTM D6400.
These two classes are, however,not mutually exclusive.
Biobased & Biodegradable
GlobalDemand
for bioplastics will increase more than
fourfold to
900,000 tonnes in
2013.
(Freedonia)
Projected Biomaterials Trends
Global Production
of bioplastics will increase sixfold to
1.5 million tonnes
by 2011.
up from 262,000 tonnes in 2007.
(European Bioplastics)
GlobalDemand
for bioplastics will increase more than
fourfold to
900,000 tonnes in
2013.
(Freedonia)
Projected Biomaterials Trends
ProductionCapacity
of bio-based plastics is projected
to increase from 360,000 tonnes in 2007 to about
2.3 MILLION tonnes
by 2013.
(European Bioplastics)
Global Production
of bioplastics will increase sixfold to
1.5 million tonnes
by 2011.
up from 262,000 tonnes in 2007.
(European Bioplastics)
GlobalDemand
for bioplastics will increase more than
fourfold to
900,000 metric tons
in 2013.
(Freedonia)
Projected Biomaterials Trends
Increasing demand for biobased, durable products in electronics and automotive applications.
By 2011 durables are expected to account for almost 40% of bioplastics –
compared with 12% today.(European Bioplastics)
Projected Biomaterials Trends
Bioplastics will still only be 1% of the approximate 230 million tonnes
of plastics in use today.
Projected Biomaterials Trends
What is Driving
this Growth?
Oil Independence
Environmental
Pollution
Global Warming
Human Health
Concerns
Legislation
Japan Government has set a goal that 20% of all plastics
consumed in Japan will be renewably sourced by 2020.
GermanyBan on land filling solid waste with over 5% organic content.
Biodegradable plastics exempt from the recycling directive until 2012.
Savings of 1.3 €/kg in favor of compostable bioplastics.
USAFederal Farm Bill - Energy Title 9
Each Federal agency must design a plan to purchase asmany biobased plastics as practically possible.
Federal procurement plan will be based on biobasedcontent, price and performance.
Key Legislative Initiatives for Bioplastics
Biobased Polymer CapacitiesFor Major Players
Product Company Location Capacity/mt Price/#
PLA
PLA
PHA’s
PHBH
PHBV
Materbi
Cereplast
HDPE/LDPE /PP
Natureworks
Hisun
Metabolix
Meridian/Kaneka
Tianan
Novamont
Cereplast
Braskem
USA
China
USA
USA
China
Eu
USA
SA
140,000
5,000
300/50,000(2010)
150,000?
2,000
75,000
25,000
200,000(2010)
0.85-1.20
1.25
2.50-2.75
n/a
2.40-2.50
2.0-3.0
1.50-2.50
0.80-1.00
NatureWorks, Hisun
Novamont
Cereplast
Dupont
Tianjin Bio Green /DSM
Tianan Biologic
Metabolix
Braskem
PLA
Mater-Bi, Origo Bi
Cereplast
BIOMAX (PTT, Plantic)
PHA
PHBV
PHA
Green Polyethylene
The Biobased Leaders Today
………………………………………………………………………………………………………………
………………………………………………………………………………………………………………WHO? WHAT?
BraskemDow/CrystalsevDuPontArkemaBASFRohm & HaasDow, CargillNatureWorks LLC
HDPE, LLDPE, PPHDPEPTT; PBT; Nylon 6,12Nylon 11,Pebax Nylon 6,10AcrylicsSoy based urethanes PLA Blends
Degradable
Who May Be theBiobased Leaders Tomorrow?
Durable
NovamontNatureWorksMetabolixDSM
Origo BioPLA PHA’sPHA’S
………………………………………………………………………………………………………………………
………………………………………………………………………………………………………………………WHO? WHAT?
Continuing lack of infrastructure for useand disposal of compostable plastics.
Many biobased plastics players too focused oncompostability as the key differentiating asset.
Increasing demand for biobased, semi durableand durable products for household goods,electronics and automotive applications.
Increasing interest and developments in existing and new monomers from renewable resources.
Why The Change?
CompoundedBiobased Compostable
O
OHHO
H CH3
L-Lactic Acid
O
OHHO
H3CH
D-Lactic Acid
(0.5%)
Polylactic Acid (PLA)
100% Renewable & Compostable
Key Compostable Bioplastics
Starch/PLA/ECOFLEX
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Starch Blends
Hydrolytic stability
Distortion Temp
Vapor Transmission
Shelf Life
Areas of Concern
PLA
Hydrolytic Stability
Distortion Temp
(amorphous)
Vapor Transmission
Shelf Life
Impact Resistance
Melt Strength
PHA’S
Hydrolytic Stability
Shelf Life
Processability
Melt Strength
Economics
Compostable Bioplastics Do Not Yet Meet the Needs for Durables
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Polyethylene from Sugar Cane
Nylon 6 from Lycine
PET from Sugar
Polyurethane Using Soy Based Alcohols
Increasing Synergism with the Biofuels Initiatives
Other Durable BioplasticsAre Appearing
Monomers from Sugar / Cellulosic Biomass
Succinic acid (DSM, Bioamber, Roquette, Mitsubishi Chemical)3-hydroxy propionic acid (Cargill, Codexis)Acrylic acid (Ceres, Rohm & Haas)Aspartic acid (China)Levulinic acid (China)Sorbitol (Cargill, ADM, Roquette)Ethylene/ethylene glycol (Braskem, India Glycols)Propylene/propane 1,3 diol (Braskem, DuPont / Tate & Lyle)Butylene/butane diol (Genomatica)Lysine/caprolactam (Draths)Terephthalic acid (Gevo)Adipic acid Isoprene (Goodyear, Genenco)FDCA- Avantium
Next Generation of Bioplastic “Building Blocks"
…………………………..……………………………………………………………………………………………….
Monomers / Intermediates from Vegetable Oils
Glycerol
Acrylic acid (Arkema)
Propane, 1,2 diol (ADM)
Soy based polyols (Dow, Cargill)
Castor oil / 12 hydroxy stearic acid (India)
Amino undecanoic acid (Atofina)
Next Generation of Bioplastic “Building Blocks"
……………...………………..……………………………………………………………………………………………….
The Future For BioplasticsWill Depend On…
Expanding from Single Use Compostableto Durable Applications
Transitioning from Oil Based to Renewable Feedstocks
Addressing Issues –Sociological, Environmental & Political
Composting/Recycling Infrastructure Developments