Month: July 2008

Lanza Tech New Zealand Ltd.

Lanza Tech New Zealand Ltd.

24 Balfour Road
New Zealand
Phone: +64 9 373 4929
Fax: +64 9 929 3038

LanzaTech New Zealand Ltd. is a privately held company funded by Khosla Ventures, LLC, arguably the top venture firm in the U.S. focusing on alternative, clean green energy systems.

The company was founded in 2005 and operates from its facilities in Auckland New Zealand.

LanzaTech has developed a proprietary platform for producing lowest-cost fuel ethanol in any industrialized geography, at a much larger scale than is currently being envisioned elsewhere.

Specifically, our plan is to develop an ethanol production process that can be retrofitted to industrial facilities to generate ethanol from the carbon monoxide component of waste flue gases.

Industrial flue gases are an inherently low cost, high volume, point location resource, produced in most industrialized regions. LanzaTech’s mission is to enable industries that produce high volumes of carbon monoxide containing flue gases to become the lowest cost, highest volume producers of fuel ethanol.


LanzaTech has developed a technology to allow high volume industrial waste streams to become a resource for bio-ethanol production. This technology has been developed and demonstrated in their purpose built laboratory.  The company is now embarking on a process refinement and scale-up plan.

Stirling Energy Systems, Inc.

Stirling Energy Systems, Inc.

Stirling Energy Systems Inc.
Biltmore Lakes Corporate Center
2920 E. Camelback Road
Suite 150
Arizona 85016
Phone: +1 602 957 1818
Fax: +1 602 957 1919
Stirling Energy Systems, Inc. (SES) is a developer of solar power generation equipment for utility-scale power plants. SES has developed an innovative and highly efficient solar energy technology that is ready for commercialization. The Company’s unique technology, the SunCatcher TM, combines a mirrored concentrator dish with a high-efficiency Stirling engine specially designed to convert sunlight to electricity.

Extended Stirling Video SES has contracts to build and operate two large power projects with major Californian utilities for up to 1,750 megawatts (MW) of power, representing the world’s two largest solar power contracts ever granted. Collectively, these contracts require up to 70,000 SunCatchers and further validate the commercial appeal of the technology.

SES is actively engaged in the commercialization of the SunCatcher, including continuing to prepare the system for mass production, completing project site-development and pre-construction activities and establishing partnerships with substantial manufacturing and industrial organizations to develop a cost-effective manufacturing process and supply chain.

SES was formed in the United States as a Nevada corporation in 1996 and was reincorporated in Delaware in March 2006. The Company maintains its corporate headquarters in Phoenix, Arizona. The company’s project and technical development offices are located in Tustin, California and its engineering and test site operations are located at Sandia National Laboratories in Albuquerque, New Mexico.


The solar thermal technology designed and adopted by Stirling Energy Systems is the SunCatcher. Each dish system on an annual basis is capable of producing 55,000 – 60,000 kWh of electricity.

The solar sites being developed by SES will consist of thousands of SunCatchers which will harness the power of the sun and generate it into electricity which will feed onto the grid system in California.

Product is the SunCatcher?

The SES SunCatcher is a 25 kW solar power system that has been designed to automatically track the sun and focus solar heat onto a power conversion unit (PCU). This in turn converts the intense heat to grid-quality electricity. The concentrator consists of a 38-foot diameter dish structure that supports 82 curved glass mirror facets, each three feet by four-feet in area. These mirrors concentrate solar energy onto the heater head of a high efficiency, 4 cylinder reciprocating Stirling cycle engine, generating up to 25 kW of electricity per system. Engine

The Stirling Engine used by SES has been an industry test bed for various applications including automotive, solar, gas and diesel fuelled power. The particular engine used in this project is the 4-95 engine (4 cylinder, each 95cc displacement) that evolved from the Philips engines of the 1960’s. United Stirling of Sweden carried out the bulk of this work in the 1960’s and 70’s with technology transfer to the USA to develop automotive applications during the oil crisis.

Novomer, Inc.

Novomer, Inc.

South Hill Business Campus
950 Danby Road
Suite 198
Ithaca, NY 14850
Phone: 607.330.2321
Fax: 607.330.4813

Novomer is a new materials company pioneering a family of competitively priced high-performance green plastics, polymers and other chemicals. With proprietary catalytic technology and a world-class scientific team, Novomer’s groundbreaking technology allows carbon dioxide and other renewable materials to be cost-effectively transformed into polymers, plastics and other chemicals for a wide variety of industrial markets.

Other environmentally friendly materials utilize expensive, limited, food feedstocks and costly biological production processes. Novomer uses carbon dioxide as a major input in a competitively priced, precision-quality, chemical process that produces a class of uniform polymers, plastics and other chemicals. Novomer is building the partnerships to turn these exciting materials into environmentally friendly, green materials to extend the power of chemistry beyond the petroleum era.


Catalysis is Novomer’s scientific engine. It enables the reactions of stable molecules with other molecular building blocks to produce new polymers and fine chemicals. “A catalyst is like a matchmaker who makes a marriage and then can go off and make other marriages,” explains founding scientist Geoff Coates. Although he jokes that their catalyst systems make use of “zinc-based pixie dust,” these patented systems are highly calibrated. They are scalable and tunable. Novomer can target their reaction outcomes precisely and tailor their new materials for desired characteristics.

Their feedstocks are simple, readily abundant, and inexpensive. They concentrate on using CO and CO2 as carbon feedstocks and have been successful in creating a growing family of new materials.

Their catalysts are highly selective and efficient, and the reactions they accelerate take place at lower temperatures and lower pressures than other catalysts. Their catalytic systems reduce chemical waste, energy requirements, capital investment, and operating costs.

Applications under development include CO2 co-polymers such as NB-180 and catalysts for epoxide carbonylation.


Novomer is bringing multiple products to market based on their platform of CO2 and CO catalysis technology. As their first commercial product NB-180 utilizes CO2 feedstocks to produce an ultra-performance material for specific high-tech markets.

Through cutting-edge green chemistry initiated at Cornell University, Novomer’s first product NB-180 has been developed specifically for high performance industrial and commercial applications requiring a binder that decomposes rapidly, cleanly and is environmentally friendly.

NB-180 is an amorphous, colorless thermoplastic polymer (polypropylene carbonate) which decomposes into environmentally benign products making it the perfect solution for broad applications in the electronics, brazing and ceramics industries.

Due to a recently-patented catalytic process, NB-180 binders burn more uniformly and at lower temperatures than currently available sacrificial binders. Thus shorter binder burnout times and higher precision results in multiple applications can be achieved simultaneously.

NB-180 also produces extremely low ash residue by burning significantly cleaner than any current binders. Because of this negligible contamination, NB-180 is the preferred sacrificial material in the precise assembly of micro and nano-scale devices. Using NB-180 will decrease residues and defect rates as well as increase precision and strength during sintering processes.

Their highly efficient catalytic systems are tunable so NB-180 can be tailored to specific application needs. In addition, NB-180 dissolves in a variety of solutions in a broad range of viscosities to allow maximum flexibility.

From the start, NB-180 was formulated to be an invaluable tool for the creation of higher quality products at lower costs to meet the changing demands of end customers.

Amyris Biotechnologies, Inc.

Amyris Biotechnologies, Inc.

5980 Horton Street, Ste. 350
Emeryville, CA 94608
(510) 450-0761


Amyris Biotechnologies is translating the promise of synthetic biology into solutions for real-world problems. Building on advances in molecular, cell and systems biology, they are engineering microbes capable of producing high-value compounds to address major global health and energy challenges. They are employing these living chemical factories to produce novel pharmaceuticals, renewable fuels, and specialty chemicals.

Amyris Biotechnologies is dedicated to improving the world by leveraging breakthroughs in synthetic biology. Amyris’ technology is able to provide a consistent, cost-effective supply of biofuels and other high-value natural compounds, including pharmaceuticals, fine chemicals, and nutraceuticals.

Amyris is currently focused on two major projects:

* The production of the drug artemisinin to fight malaria in developing countries

* The production of renewable biofuels to help reduce global warming


Amyris uses engineered microbes and rapid enzymatic pathway construction techniques to build microorganisms capable of producing high-value compounds, from renewable biofuels to pharmaceuticals.

Amyris’ platform technology is based on a modular design of metabolic pathways. One example of this approach was developed at the University of California, Berkeley, in the laboratory of Professor Jay Keasling and published in July 2003 in Nature Biotechnology.

Synthetic biology is a new scientific discipline that involves the design and construction of new biological parts or systems, as well as the re-design of existing biological systems, for specific applications. This new discipline takes the knowledge gained from the analysis of existing biological systems and applies it to the construction of new ones.

Amyris is using synthetic biology techniques to build biological solutions to important global problems.  They focus on creating new metabolic pathways in microbes, essentially re-programming them to function as living factories for the environmentally-friendly production of high-value chemicals. Their first project converts a microbe known for its ability to make copious amounts of alcohol, such as yeast, into a chemical factory for a proven anti-malarial drug. Their second project is the development of a fermentation process that uses custom-designed microbes to renewably produce second-generation, high-performance biofuels that are cost-effective and compatible with current automotive and distribution technologies.



5405 Morehouse Drive,
Ste 210
San Diego, CA 92121
858 -824-1771 phone
858-824-1772 fax
info @
Genomatica is a San Diego-based chemical company that, through biotechnology, develops and commercializes innovative bio-manufacturing processes for the sustainable production of high value chemical products. The company was founded in July 2000 by Christophe Schilling and Bernhard Palsson, two preeminent leaders in bioengineering, and is led by CEO Christopher Gann, a former Dow Chemical senior executive with over 25 years experience.

Genomatica’s robust collection of integrated technologies has been key to establishing the company as the true pioneer in the field of chemical bio-manufacturing. Some of these technologies include:

* Silicon Lab:
o SimPheny: Proprietary award-winning constraint-based metabolic modeling and simulation system
o Metabolic Model Development: The industry’s preeminent collection of predictive models of microbial metabolism and automated systems that facilitate rapid model development.
o OptKnock Strain Design: powerful proprietary algorithms to couple the production of desired chemical products and growth for highly productive, stable biocatalysts.
o Bio-Pathway Predictor: High throughput system for determining all possible biological and chemical transformation routes to a desired chemical product.
o C Flux Analysis: Isotopic labeling analysis and the most accurate computation of internal flux distributions for large scale metabolic networks.
* Wet Lab:
o Enhanced Evolutionary Engineering: Patented adaptive evolution of microbes to allow for rapid self-optimization for process conditions.
o High-Throughput Fermentation: Hundreds of small-scale fermentations per day.


Genomatica possesses a disruptive, proprietary, integrated suite of computational and experimental technologies to design, create, and refine novel high-producing organisms and bioprocesses. Genomatica is truly forging new ways to transform living cells into producers of valuable chemical products. The bioprocesses enabled by these live organisms offer breakthrough cost advantages; they are developed in significantly reduced timelines, and offer a sustainable substitute for current petroleum-based chemicals. Their development does not rely on serendipity to succeed.

The company selects target chemicals for development and manufacture based on current and expected market size, ease of substitution, partner needs, simplicity of biological pathway, and a host of other proprietary criteria.

Genomatica strives to be the best in the world at:

  • Rapidly designing and assessing technical feasibility of producing any chemical via biological systems. We enable bio-manufactured chemical technology.
  • Engineering and evolving the highest performing organisms possible with viable alternate feedstocks. We lead the conversion of existing hydrocarbon based chemical production towards bio-manufacturing.
  • Enabling carbohydrates to sustainably displace hydrocarbon based feedstocks in chemical manufacturing through process research .

To facilitate this process, Genomatica has developed the world’s most sophisticated fully-integrated metabolic engineering platform, including:

  • Computational Modeling & Automated Pathway Design– Proprietary simulation technology and models of metabolism to exhaustively explore design possibilities for our conversion technologies. We have dramatically expedited rational design.
  • Evolutionary Engineering – The patented use of models together with adaptive evolution of living cells to enhance properties and characteristics of natural and engineered organisms.
  • Integration of Computational and Experimental R&D Processes – Tight coupling of In Silico and Wet Lab workflows through process integration to drive greater throughput, efficiency, and optimization of our R&D process and timelines.

Ocean Power Technologies, Inc.

Ocean Power Technologies, Inc.

Corporate Offices:

1590 Reed Road
New Jersey 08534
Phone: +1 609 730 0400
Fax: +1 609 730 0404

Ocean Power Technologies Ltd

Warwick Innovation Centre
Gallows Hill
Warwick CV34 6UW
Phone: +44 (0)1926 623370
Fax: +44 (0) 1926 408190


OPT was formed by Dr. George W. Taylor and the late Dr. Joseph R. Burns in pursuit of their vision of harnessing the boundless energy of the world’s oceans. Starting in 1994 OPT has focused on its proprietary PowerBuoy™ technology, capturing wave energy using large floating buoys anchored to the sea bed and converting the energy into electricity using innovative power take-off systems.

Commencing in 1997, ocean trials have been conducted off the coast of New Jersey to demonstrate the concept of using a floating buoy to capture wave energy and convert it into electricity. The technology is on a growth curve towards full-scale commercial application, recent examples of which are the 40 kW-rated PowerBuoys installed in Hawaii and New Jersey.

Ocean Power Technologies Inc. was floated on the London Stock Exchange’s AIM market in October 2003 following a successful IPO, and is traded on the AIM market under the symbol “OPT”.

The Company completed its US IPO and listing on Nasdaq in April 2007, and is traded on Nasdaq under the symbol “OPTT”.

OPT has begun the initial phase of installation of a 1.39 MW wave farm off the northern coast of Spain. The project is a joint venture with the Spanish utility Iberdrola SA. A full size demonstration plant of up to 5MW capacity is planned for installation in UK waters.


OPT’s PowerBuoy® wave generation system uses a “smart,” ocean-going buoy to capture and convert wave energy into low-cost, clean electricity.

The rising and falling of the waves off shore causes the buoy to move freely up and down. The resultant mechanical stroking is converted via a sophisticated power take-off to drive an electrical generator. The generated power is transmitted ashore via an underwater power cable.

OPT PowerBuoys capture wave energy.
OPT power station showing multiple buoys.

A 10-Megawatt OPT power station would occupy only approximately 30 acres
(0.125 square kilometers) of ocean space.

Sensors on the PowerBuoy® continuously monitor the performance of the various subsystems and surrounding ocean environment. Data is transmitted to shore in real time. In the event of very large oncoming waves, the system automatically locks-up and ceases power production. When the wave heights return to normal, the system unlocks and recommences energy conversion and transmission of the electrical power ashore.

• Buoys are spaced to maximize energy capture.

• Rugged, simple steel construction.

• Utilizes conventional mooring systems.

• Simple installation using existing marine vessels and infrastructure.

• Scalable to large power stations (100+ MW)


Ocean Power Technologies’ PowerBuoy® is designed to convert ocean wave energy into useable electrical power for utility-scale grid connected applications. The PowerBuoy® can be deployed in arrays scalable to 100’s of megawatts.



Delftweg 65
2289 BA Rijswijk
The Netherlands

Tel.: +31(0)15 285 53 33
Fax: +31(0)15 256 89 00

Epyon provides advanced ultra-fast charging solutions for electric vehicles which are used in critical business processes such as material handling, delivery of goods and transportation of people. Our fast charging solutions based on advanced lithium-ion battery technology enable electric vehicles to run 24 hours per day with an occasional recharge in 15 minutes during mandatory lunch- or coffee brakes. Epyon products are engineered to allow electric vehicle manufacturers the possibility to integrate fast charging into their product portfolio in an easy and plug-n-play manner.


Inspired by research on advanced energy storage media Epyon was founded in 2005 as a spin-off company from the Delft University of Technology. The company has its office in Delft, the Netherlands where it conducts it’s research and development and small scale production of chargers. Larger scale production is done together with partners in Europe and Asia.

Their management team consists of a mix of ambitious entrepreneurs and experienced business veterans. The Epyon organization is built on ambitious engineers and leading experts in the field of power conversion, energy storage and intelligent systems. Due to great effort of the whole team we have been able to grow rapidly to become a leader in our field.


Epyon wants to become a leader in providing ultra fast charging solutions for electric vehicles used in critical business processes to enable clean and reliable electric transportation in a 24-7 economy.


Epyon’s technology platforms provide the ability for super-fast charging: charging in minutes instead of hours.
Their technology is based on nano-technology lithium-ion energy storage media, state-of-the-art power conversion techniques and intelligent control systems which enable excellent battery life.

The technology advantages:

• Charge in minutes instead of hours!
• Battery cycle life enhancement through intelligent charge control
• Built on years of battery test data
• Small size chargers through advanced power conversion technology
• Maximum safety

Advanced energy storage and power conversion systems provide new possibilities for many industries. Epyon is an expert in the field of industrial and automotive class lithium-ion energy storage systems.

Epyon engineered solutions:

• Advanced energy storage systems
• Power conversion
• Energy management and control

Epyon’s fields of expertise:

• Hybrid and electric drive trains
• Industrial power systems
• Buffering & peak shaving
• UPS solutions
• Energy management systems

Coskata Inc.

Coskata Inc.

Coskata, Inc.
4575 Weaver Parkway, Suite 100
Warrenville, Illinois 60555
Main: 630-657-5800
Fax: 630-657-5801


Coskata, Inc. is a biology-based renewable energy company, with technology for the production of liquid fuels. Using proprietary microorganisms and transformative bioreactor designs, the company will produce ethanol for under US$1.00 per gallon anywhere in the world, from almost any input material (feedstock).

Coskata is commercializing a proprietary process and related technologies for the conversion of a wide variety of input materials into ethanol. Coskata has an efficient, affordable, and flexible three-step conversion process:

1. Incoming material converted into synthesis gas (gasification)
2. Fermentation of the synthesis gas to ethanol (biofermentation)
3. Separation and recovery of ethanol (separations)

During gasification, carbon-based input materials are converted into syngas using well-established gasification technologies. After the chemical bonds are broken using gasification, Coskata’s proprietary microorganisms convert the resulting syngas into ethanol by consuming the carbon monoxide (CO) and hydrogen (H2) in the gas stream. Once the gas-to-liquid conversion process has occurred, the resulting ethanol is recovered from the solution using “pervaporation technology.”

Coskata’s proprietary microorganisms eliminate the need for costly enzymatic pretreatments, and the bio-fermentation occurs at low pressures and temperatures, reducing operational costs. In addition, the Coskata process has the potential to yield over 100 gallons of ethanol per ton of dry carbonaceous input material, reducing both operational and capital costs. Coskata’s exclusively licensed separation technology dramatically improves the separations and recovery component of ethanol production, reducing the required energy by as much as 50%.

Coskata Ethanol


Ethanol is a clean burning fuel, with the ability to be completely renewable and transform the global fuel market with its many positive attributes:


  • Ethanol from renewable sources is environmentally friendly, reducing greenhouse gas emission levels substantially
  • Ethanol is great for the U.S. at large, helping to alleviate dependence on foreign sources of oil and allowing for domestic fuel production
  • Stimulates the economy and increases the value of domestic resources while creating jobs
  • Ethanol is great for the consumer because it can reduce fuel costs

However, not all biofuels are created equal. Coskata does NOT make ethanol from food products; it makes the fuel from sources like municipal solid waste (trash), agricultural and forest residuals, bagasse and many other carbon containing input materials. Coskata’s process technology converts what has frequently reached the end of its useful lifecycle into renewable energy, while being energy positive.

Range Fuels

Range Fuels

11101 W. 120th Avenue, Suite 200
Broomfield, CO 80021
Phone: 303-410-2100
Fax: 303-410-2101

Range Fuels is a privately held company funded by Khosla Ventures, LLC, arguably the top venture firm in the U.S. focusing on alternative, clean (green) energy systems. Their leadership team melds experience from the fast-paced, high-tech world, and the technologically intense coal, coal gasification, and gas-to-liquids industries.

They convert biomass into fuel-grade ethanol using emerging clean energy technologies. Biomass includes all plant and plant-derived material, such as wood, switch grass, corn stover, and miscanthus grass – making it a renewable energy resource that produces no net greenhouse gases.

Range Fuels can produce more ethanol for a given amount of energy expended than is possible with any other competing process. This key difference is a result of their ability to convert all – not just some – of the biomass used, along with their modular facilities, which bring the conversion process right to the biomass source. Their approach is highly flexible, efficient, cost effective, and scalable.


Range Fuels has invented a two-step thermo-chemical process to produce cellulosic ethanol. Even if these words are foreign to you, the positives are sure to resonate: the process is self-sustaining, produces virtually no waste products, emits very low levels of greenhouse gases, and produces high yields of clean ethanol.

A Design Driven by Efficiency
Their focus on efficiency goes beyond how they produce ethanol – it also extends to where they produce it. Their distributive design lets them bring systems to sources where biomass is most plentiful, instead of having to transport biomass to a central processing site. This reduces transportation costs and related transportation fuel consumption. Their modularity also allows the system to grow as more biomass becomes available. Simply adding another module – which is easy to ship and install – immediately doubles the output. They put their systems where they are needed, in just the size that is needed.

Nature’s Way

Range Fuels’ entire approach is based upon the invention of eco-friendly technology. The best evidence of this is that they produce more ethanol per energy input than competing technologies. Nature likes this. Especially since everything going in is plant and waste material that serves no useful purpose. We call this conversion “waste to value,” and this thrust is what motivates us to keep working our hardest.

The Two-Step Thermo-Chemical Process

Step 1: Solids to Gas
Biomass (all plant and plant-derived material) that cannot be used for food, such as agricultural waste, is fed into a converter. Using heat, pressure, and steam the feedstock is converted into synthesis gas (syngas), which is cleaned before entering the second step.

Step 2: Gas to Liquids
The cleaned syngas is passed over the proprietary catalyst and transformed into mixed alcohols. These alcohols are then separated and processed to maximize the yield of ethanol of a quality suitable for use in fueling vehicles.

A Simple Process
Because Range Fuels’ process utilizes a thermo-chemical process, it relies on the chemical reactions and conversions between forms that naturally occur when certain materials are mixed under specific combinations of temperature and pressure. Other conversion processes use enzymes, yeasts, and other biological means to convert between forms.

Feedstock Flexibility
The Range Fuels process accommodates a wide range of organic feedstocks of various types, sizes, and moisture contents. This flexibility eliminates commercial problems related to fluctuations in feed material quality and ensures success in the real world, far from laboratory-controlled conditions.

Tested and True
Range Fuels’ technology has been tested and proven in bench and pilot-scale units for over 7 years. Over 8,000 hours of testing has been completed on over 20 different non-food feedstocks with varying moisture contents and sizes, including wood waste, olive pits, and more. This technology will be used in their first plant planned for a site near Soperton, Georgia.

Mascoma Corporation

Mascoma Corporation

Corporate Office
1380 Soldiers Field Road
Second Floor
Boston, Massachusetts 02135
General: 617.234.0099
Fax: 617.868.0408

Research Facility
16 Cavendish Court, Suite 2A
Lebanon, NH 03766
General: 603.676.3320
Fax: 603.676.3321

Mascoma New York
679 Ellsworth Road
Rome, NY 13441
General: 315.356.4780
Fax: 315.356.4787
Email: info@mascoma.comAbout

Mascoma Corporation was founded in late 2005 with initial funding from Khosla Ventures and Flagship Ventures in early 2006. A Series B round of funding was closed in November of 2006 and a Series C round of funding was closed in May of 2008.

Mascoma has subsequently received several state and federal grants, including:

* A $14.8MM grant from the State of New York for the establishment of a demonstration plant.
* A $4.9MM grant from the U.S. Department of Energy for organism development.
* Part of the $125MM U.S. Department of Energy Bioenergy Science Center Grant led by Oak Ridge National Lab.
* A $26 million grant from the U.S. Department of Energy for the establishment of a demonstration plant.

Mascoma is aggressively pursuing the development of advanced cellulosic ethanol technologies across a range of cellulosic feedstocks. As part of their strategy of technology discovery, development and deployment, they are aggressively patenting numerous technologies and forming a broad set of research and commercial partnerships.

Their corporate and engineering offices are located in Boston, Massachusetts; the R&D labs are headquartered in Lebanon, New Hampshire; and our demonstration plant is in Rome, NY.


In the current economic and political climate, there has been enormous attention focused on the need to develop sustainable and renewable sources of transportation fuel. Ethanol has a significant and growing role in this development, providing a cleaner, domestically-produced, renewable energy solution.

However, the current generation of ethanol production in the U.S. utilizes corn and other edible feedstocks. Mascoma is committed to developing sustainable, viable, next generation ethanol from cellulosic feedstocks.

Mascoma’s industry leading R&D team is focused on developing biofuels from non-food biomass wood, straws, fuel energy crops, paper pulp and other agricultural waste products. Processing ethanol from cellulosic biomass minimizes the environmental impact of fuel ethanol production.

In nature, no organism is capable of quickly and cost-effectively producing and fermenting sugars from cellulosic biomass. Mascoma’s research laboratories are now developing a new generation of microbes and processes for economical conversion of cellulosic feedstocks into ethanol.

Mascoma’s organisms and processes are designed to:

  • Rapidly break down the components of biomass
  • Convert a range of sugars and polymers of sugars to ethanol
  • Thrive in a manufacturing environment

With Mascoma’s next generation of processing solutions comes a complete rethinking of the way in which we fuel our economy.