Investing in Biopolymers

Investing in Biopolymers

Last month Eastman Chemical Company (EMN:  NYSE) announced an expansion of its urethane extrusion line at one of its specialty chemical plants. This one located near Martinsville, Virginia makes paint protection films and window films.  Urethane is perfect to protect surfaces in a home or business.  It is not brittle like plastic, but has excellent tolerance for grease and oils.  When exposed to the elements it does not rot or degrade over time like rubber.

Shareholders likely cheered the development in Virginia for potential addition to market share.  Eastman grabbed $9.6 billion in sales from the specialty chemicals market in 2017, earning $1.4 billion in net income or $9.47 in earnings per share. Anyone who has waded through even just a few of posts here, knows I hold a special interest in companies that generate cash.  In 2017, Eastman turned a whopping 17.3% of sales into operating cash flow.  With so much cash sloshing around Eastman is able to offer a tasty dividend of $2.24 per share, which at the current price provides a yield of 2.1%.

As appealing as EMN shares might seem, Eastman’s urethane and most of its other products are made from fossil fuels.  Environmentally conscientious investors may balk at dividends tainted by a supply chain that contributes to climate change. Plastics that come out the other end of that chain offer durability but are not readily biodegradable because of resistance to microbial action.  They simply keep accumulating in the environment.

Discerning investors need not be frustrated in finding redeeming investments in specialty chemicals.  There are biodegradable polymers made from both petroleum and renewable resources such as corn starch, cassava roots or sugarcane. Polylactides or PLAs are one an example. The most common way to make product PLAs is ring-opening polymerization of lactide with a metal catalyst in a solution. Polylactides materials can be extruded with a three-dimensional printer or an injection molding machine.  Consumers will be most familiar with PLAs as food containers, but the material is so versatile it can also be used for everything from upholstery to medical implants.

Tea bags made from polyacitate By Elke Wetzig (elya) [GFDL or CC BY-SA 3.0], from Wikimedia Commons

PRODUCERS OF POLYLACTIDE (PLA)
Trade Name	Company	Country	Symbol
NatureWorks	Cargill Dow	USA	Private
Galacid	Galactic	Belgium	Private
Lacea	Mitsui Chemicals	Japan	4182:  Tokyo
Lacty	Shimadzu	Japan	7701:  Tokyo
Heplon	Golden Technologies	USA	Private
CPLA	DIC Global	Japan	4631: Tokyo
Eco plastic	Toyota Corporation	Japan	TM:  NYSE
Treofan	Treofan Holdings GmbH	Netherlands	Private
PDLA	Corbion NV (formerly Purac)	Netherlands	Private
Ecoloju	Mitsubishi Plastics, Inc.	Japan	8058:  Tokyo
Biomer	Biomer	Germany	Private

Nature has its own ring-opening polymerization process that result in polymers.  It is a part of the regular growth cycle of living organisms.  Starch and cellulose are the two most common biopolymers from nature’s ‘specialty chemical factory,’ but lipids are another resource.  From a commercial standpoint, wheat gluten is a popular resource because it is available in high quantity at low cost.  Most importantly gluten is fully biodegradable and the products that are produced are non-toxic.

Chitin is the second most abundant natural biopolymer.  It is found in the shells of crabs, shrimp, crawfish and insects.  With a rigid and compact crystalline structure, it is insoluble in water and alkaline media.  Unfortunately, chitin and its derivative chitosan are limited because of insolubility in most solvents.  Nonetheless, it has found utility in cosmetics and in wound treatment.

The word in biopolymers is starch.  It is a low-cost polyssacharide and available with abundance at low cost.  Starch is mainly extracted from potatoes, corn, wheat and rice.  It is interesting that there are few if any U.S. companies developing ‘starch polyesters.’  Perhaps this is because the chemical industry really began formation in the U.S., providing the seeds to an entrenched supply chain that does change speed or direction quickly.  Among the European competitors there is considerable scrambling for position in the starch polymer market.  Italy-based Novamont was in a legal dust up with Britain’s Biotec a few years back, but the two finally agreed to put their patent infringement accusations aside.

COMMERCIAL ‘STARCH’ POLYESTERS
Trade Name	Company	Country	Symbol
Mater-Bi, Biocol	Novamont, S.p.A.	Italy	Private
Solanyl	Rodenburg Biopolymers, B.V.	Netherlands	Private
Ecofram	National Starch (Akzo Nobel)	Netherlands	AKZA:  AMS
Vegeplast	Vegemat	France	Private
Biolice	Limagrain	France	Public, Non-quoted
Biotech	Biotech, s.r.o.	Germany	Private
Bioplast	Biotec	England	Private
Plantic	Plantic Technologies Ltd.	Australia	Private

Investors with an interest in getting involved with biopolymers, the vehicle will need to be at the private level.  Only Akzo Nobel has a trading stock that can be purchased through the Amsterdam Exchange.  It seems more likely than not that the biochemical companies will capture market share as the world turns to sustainable materials.  The next step in the somewhat fragmented starch group will likely be a wave of mergers or acquisitions.  The result could be deeper product lines and scale in production that provide the foundation for public trading company stock.

Debra Fiakas is the Managing Director of Crystal Equity Research, an alternative research resource on small capitalization companies in selected industries.

Neither the author of the Small Cap Strategist web log, Crystal Equity Research nor its affiliates have a beneficial interest in the companies mentioned herein.

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