bioplasticsMAGAZINE_1406
bioplasticsMAGAZINE_1406
bioplasticsMAGAZINE_1406
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News<br />
Corbion Purac to build<br />
PLA production plant<br />
Corbion Purac, the Netherlands-based global market<br />
leader in lactic acid, lactic acid derivatives and lactides,<br />
has decided to act on what its CEO Tjerk de Ruijter recently<br />
described as an “attractive demand outlook for PLA, albeit<br />
at a lower growth pace than previously assumed”.<br />
With worldwide PLA capacity almost sold out and with<br />
the PLA market expected to grow to 600 kTpa by 2025, the<br />
market is seeking additional PLA suppliers – a role that<br />
Corbion Purac feels more than competent to fulfill.<br />
As De Ruijter pointed out: “Given our strong position in<br />
lactic acid, our unique high heat technology and the market<br />
need for a second PLA producer, we plan to forward integrate<br />
in the bioplastics value chain, from being a lactide<br />
provider to a PLA producer.”<br />
The company has announced plans to invest in a 75 kTpa<br />
PLA plant (estimated EUR 60 million capex) in Thailand, but<br />
“only if we can secure at least one-third of plant capacity<br />
in committed PLA volumes from customers”, according to<br />
De Ruijter.<br />
The announcement came at the company’s strategy update<br />
conference a few weeks ago, and underscored the<br />
revised strategic direction presented there: a focus on<br />
strengthening the core business in ingredients for food and<br />
biochemicals (Biobased Ingredients), while leveraging the<br />
technology to build new business platforms in the biotechnology<br />
arena (Biobased Innovations).<br />
Corbion is already active in this area, and: “In Biobased<br />
Innovations, we have a portfolio with large growth opportunities,<br />
which requires significant investments,” noted De<br />
Ruijter. Next to its PLA/lactide business, the company is a<br />
partner in a succinic acid joint venture with BASF, has developed<br />
gypsum-free fermentation technology, is exploring<br />
fermentations based on 2 nd generation biomass, and other<br />
longer-term development projects.<br />
In addition, the company will continue to explore strategic<br />
alliances, as a means to enhance the business opportunities<br />
while mitigating the associated risks. “We will debottleneck<br />
our existing lactic acid asset base, and therefore<br />
we do not foresee the need for a major new lactic acid plant<br />
in the near term,” said De Ruijter<br />
Corbion’s existing polymerization customers, many of<br />
whom have already successfully built up a strong local presence,<br />
good distribution channels and extensive market<br />
coverage, will continue to be supplied with lactides; new<br />
PLA polymerization customers are welcome. Lactide sales<br />
for the coatings and adhesives markets will also continue.<br />
KL<br />
Methane as feedstock<br />
for lactic acid<br />
The U.S. Energy Department’s Office of Energy Efficiency<br />
and Renewable Energy, Bioenergy Technologies Office<br />
has announced a grant of up to $2.5 million to Nature-<br />
Works, one of the world’s leading suppliers of bioplastics,<br />
in support of the company’s ongoing reseach collaboration<br />
with Calysta (Menlo Park, California, USA).<br />
The project is aimed at achieving the successful sequestering<br />
and, via a fermentation process, use of renewable<br />
biomethane, a potent greenhouse gas, as a feedstock for<br />
the NatureWorks’s Ingeo biopolymers and intermediates.<br />
The research and development collaboration with Calysta<br />
addresses NatureWorks’ strategic interests in feedstock<br />
diversification and a structurally simplified, lower<br />
cost Ingeo production platform and leverages Calysta’s<br />
Biological Gas-to-Chemicals platform for biological conversion<br />
of methane to high value chemicals. For Nature-<br />
Works, methane could be an additional feedstock several<br />
generations removed from the simple plant sugars used<br />
today in a lactic acid fermentation process at the Nature-<br />
Works Blair, Nebraska, Ingeo production facility.<br />
This June, a year after the joint development program<br />
was announced, Calysta demonstrated lab-scale production<br />
of lactic acid from methane, a major milestone in the<br />
project. Fundamental R&D should be completed in the<br />
next two to three years, enabling pilot production in three<br />
to five years.<br />
A greenhouse gas 20 times more harmful than carbon dioxide,<br />
methane is generated by the natural decomposition<br />
of plant materials and is a component of natural gas. Biomethane<br />
refers specifically to renewably sourced methane<br />
produced from such activities as waste-water treatment,<br />
decomposition within landfills, farm wastes, and anaerobic<br />
digestion. If successful, the technology could directly produce<br />
lactic acid from any of these methane sources.<br />
“If proven through this collaboration, methane to lactic<br />
acid conversion technology could be revolutionary, providing<br />
sustainable alternative feedstocks for Ingeo,” said<br />
NatureWorks Ken Williams, Program Leader for the Calysta-NatureWorks<br />
collaboration. “When coupled with NatureWorks’<br />
proven commercial process for lactic acid to<br />
Ingeo, the methane to lactic acid process would transform<br />
a harmful greenhouse gas into useful and in-demand<br />
consumer and industrial products. This disruptive platform<br />
could support high-value chemicals and liquid fuels.<br />
Our team thanks the Bioenergy Technologies Office and<br />
is proud to have been recognized by the Department of<br />
Energy grant for this NatureWorks and Calysta research<br />
collaboration.” KL<br />
www.corbion.com<br />
www.natureworksllc.com<br />
bioplastics MAGAZINE [06/14] Vol. 9 5