The Incredible Shrinking Biorefinery: How ISU, BioMADE, and Schmidt Sciences Are Compressing the Biomanufacturing Plant

March 11, 2026

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by Jim Lane (Biofuels Digest) ... In the real world, researchers at Iowa State University may have just done something surprisingly similar for the bioeconomy. They’ve taken what normally requires an entire biomanufacturing facility — fermentation, extraction, and separation — and compressed it into a single machine.

Call it the incredible shrinking biorefinery.

The Valley of Death

For decades, scaling the bioeconomy has meant building bigger and bigger facilities.

Larger fermentors. Larger separation trains. More pumps, columns, centrifuges, and stainless-steel piping. Each step adds cost, complexity, and risk. For startups trying to commercialize a new biological process, the most dangerous obstacle often isn’t engineering the microbe. It’s paying for the plant.

The industry calls this the Valley of Death — the point where promising lab discoveries fail to cross the financial chasm to industrial scale. Federal programs like the Bioindustrial Manufacturing and Design Ecosystem (BioMADE) and research organizations such as Schmidt Sciences have been targeting that problem directly. Their premise is simple: the bioeconomy doesn’t just need better microbes. It needs better systems.

For the past three decades, biotechnology investment has largely focused on engineering microorganisms to produce valuable molecules. That work has produced astonishing biological “chemical factories.” But a factory is more than its workers. Microbes care deeply about their environment — the mixing patterns, nutrient gradients, and shear stresses inside the reactor. A strain engineered in a lab flask can behave very differently inside a turbulent industrial vessel.

As Iowa State’s Dr. Dennis Vigil notes, microbial engineering and process engineering must evolve together. BioMADE’s roadmap reflects exactly that philosophy: optimize the biology, the reactor, the downstream processing, and the economics as one integrated system. In other words, instead of building a bigger plant, rethink the plant itself.

A Reactor That Does Three Jobs

The Iowa State team, led by Vigil and Dr. Zengyi Shao, has built a device with a formidable name: the Continuous Taylor Vortex Fermentor-Extractor-Separator.

...

In conventional stirred-tank reactors, large impellers whip the fluid into turbulence. Microbes are thrown through pressure gradients and shear forces, encountering stagnant zones in one moment and violent mixing in the next. Inside the Taylor vortex reactor, the flow is structured. Microbes ride the circulating loops, experiencing nearly identical conditions each lap.

...

A more uniform environment reduces stress, stabilizes production, and limits unwanted mutations known as genotypic drift.

But the Iowa State team didn’t stop at mixing. They turned the inner cylinder hollow. Because a rotating cylinder naturally behaves like a centrifuge, the reactor can perform product extraction and phase separation at the same time fermentation is occurring.

Three industrial steps happen simultaneously:

• fermentation
• extraction
• separation

Many engineered microbes produce compounds that are toxic to themselves — especially hydrophobic molecules such as fatty alcohols. In traditional batch reactors, the accumulating product eventually poisons the cells and shuts the system down. The Taylor vortex system removes those molecules as soon as they form.

...

The goal is to enable flexible, modular manufacturing for higher-value chemicals, pharmaceuticals, and specialized fuels.

Think containerized production systems. Think modular biomanufacturing units that can be deployed where feedstocks are available. In computing, we moved from mainframes to laptops. In energy, we moved from centralized grids to distributed generation.

Biomanufacturing may be headed down the same path.

...

In recent conflicts, analysts estimate that one in six casualties occurred during the transport of fuel or water to forward operating bases. Logistics can be as dangerous as combat. A redeployable system capable of converting local feedstocks into fuels or specialty chemicals could dramatically reduce those risks. Instead of hauling fuel across dangerous terrain, it could be produced on site.

In that context, the Taylor vortex reactor begins to look less like a laboratory curiosity and more like a strategic technology. READ MORE

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The Long, Invisible Carry (Biofuels Digest)
BioMADE Announces $21.4 Million Invested in 14 Projects to Develop the U.S. Bioindustrial Manufacturing Industry and Advance National Security Priorities (BioMADE)

Exerpt from Biofuels Digest: ... That’s the backdrop for BioMADE’s latest $21.4 million in awards across 14 projects, spanning technology, workforce, and system integrity—an effort to strengthen domestic supply chains, reduce reliance on foreign inputs, and enable point-of-need manufacturing for both commercial and defense needs. On paper, it’s a scatter. Under pressure, it’s something else. An attempt to redesign the metabolism.

...

The work by Boston University and Capra Biosciences to deploy free-floating, in-fermenter sensors generating real-time cellular datastreams suggests a system that can see itself as it operates—adjusting before drift becomes failure.

These sensors could enable closed-loop control systems in industrial bioreactors, reducing variability, increasing yields, and enabling consistent operation under changing environmental conditions.

Nearby, a different class of input: lithium-dependent systems. AlkaLi Labs’ microbial extraction of lithium from produced water reframes sourcing—recovering critical minerals from existing industrial streams rather than waiting on fragile, distant supply chains.

By integrating with existing oil and gas infrastructure, this approach could scale rapidly while reducing environmental footprint and geopolitical exposure for critical mineral supply chains.

Another pallet carries materials that, increasingly, may not need to be shipped at all. Mango Materials’ methane-to-PHA bioplastics convert waste gas into usable materials—films, fibers, and 3D printing feedstocks—collapsing the distance between feedstock and function.

This creates a pathway for distributed manufacturing where emissions become inputs, aligning environmental mitigation with material production in a single, continuous industrial loop.

Further upstream, the collaboration between Triplebar and UC Berkeley on genomic language models introduces something more profound: the ability to design biological systems computationally, compressing the time between concept and production, turning design speed into a form of readiness.

Such models could drastically reduce trial-and-error experimentation, enabling faster deployment of new strains tailored for specific industrial, medical, or defense applications.

And in the medical bay, the next layer of resilience: Roke Biotechnologies and Duke University’s low-cost nanobody-based growth factor replacements—manufacturable at scale and deployable in distributed environments—offering rapid-response capability for wound healing and chemical defense.

These biologics could be produced closer to the point of need, improving response times in both battlefield medicine and civilian emergency healthcare scenarios.\

Even projects that appear distant from defense—like California Cultured’s cell-cultured chocolate—advance critical capabilities: sterile bioreactor operation, media optimization, and contamination control, all essential for reliable, field-deployable biomanufacturing systems.

The same techniques could translate to high-value biomolecule production, enabling controlled, repeatable outputs in environments where traditional agriculture or supply chains are unavailable. Upstream, system awareness continues to sharpen.

The biopesticide life cycle analysis work led by Boundless Impact and Invasive Species Corporation builds the data frameworks needed to understand full-system impacts—from raw materials through use—so decisions can hold under regulatory and operational stress.

These tools could guide procurement and production strategies, ensuring that environmental and regulatory risks are accounted for before they become operational constraints.

Similarly, Checkerspot’s work on resilient domestic feedstocks strengthens the foundation itself, refining how inputs are sourced, measured, and sustained within U.S. borders—ensuring that what feeds the system remains secure over time. By improving feedstock reliability and performance metrics, this work supports long-term stability in supply chains that begin at the agricultural and waste-stream level.

But metabolism is not just chemistry. It is people.

MIT’s “How To Grow (Almost) Anything” network is building a national curriculum—hands-on, iterative, system-aware—training operators who understand not just processes, but how those processes interconnect.

This distributed education model could rapidly expand the talent base, creating a common language and skill set across geographically dispersed biomanufacturing hubs.

Manus and the University of Georgia are developing apprenticeship frameworks rooted in pilot-scale operations, translating theory into practice in environments that mirror real-world constraints. These programs could serve as templates for scaling workforce development alongside infrastructure, ensuring operators are trained within the same systems they will eventually run.

Dakota BioWorx is extending that reach into regional systems, including veterans transitioning into civilian roles—embedding capability where it is needed, not just where it is convenient. By anchoring training in local economies, this approach supports resilience through geographic distribution rather than concentration of specialized labor.

The University of North Carolina Greensboro’s BioMISSION program integrates data science, analytics, and machine learning into biomanufacturing education—training operators to work inside increasingly intelligent systems. Graduates of such programs will be equipped to manage hybrid biological-digital systems, where data interpretation becomes as critical as physical process control.

SPRINT, led by UC Davis and its partners, scales that training pipeline further, preparing thousands of students for entry into the bioindustrial workforce—ensuring volume as well as quality. By standardizing scalable training modules, this initiative could accelerate workforce readiness across institutions, reducing bottlenecks in talent availability as the industry grows.

And Biocom Institute’s fellowship programs build connective tissue—mentorship, networks, real-world exposure—linking talent to opportunity across the system.

These programs strengthen career pathways and retention, helping ensure that trained individuals remain within the bioindustrial ecosystem over the long term.

Each project, on its own, looks incremental. Together, they begin to describe a system that doesn’t just move materials—but adapts how they are made, sourced, and sustained.

Of course, coherence is not guaranteed. A portfolio this diverse risks adjacency without integration. The question isn’t whether each project succeeds. It’s whether they begin to work together under load. Because BioMADE’s real ambition isn’t technological. It’s logistical. It’s about maintaining position—over time, under pressure, without depending on perfect spacing. READ MORE

Excerpt from BioMADE: With funding from the U.S. Department of War and the U.S. National Science Foundation, these projects will support the production of critically needed goods and materials, strengthen the domestic supply chain, and build a 21st century workforce.

Today (April 29, 2026), BioMADE announced 14 cutting-edge new projects that will support the growth and development of the U.S. bioindustrial manufacturing industry. These projects will support the manufacture of innovative bio-based products like a lithium biosorbent for biomining; plastics for 3D printing; proteins for wound healing and chemical defense; biosensors for disease detection; and more. They will leverage state-of-the-art methodologies like machine learning, AI, and advanced new sensors and purification systems. Projects will also support the development of the needed biomanufacturing workforce through projects that are easing the transition for veterans into civilian careers, launching community college programs, and developing hands-on apprenticeship programs.

“Global competition for bioindustrial manufacturing is at a critical tipping point, with many countries around the world investing heavily in biotechnology innovation and commercialization. If the U.S. is to remain competitive, we must do the same,” said Douglas Friedman, Chief Executive Officer at BioMADE. “We appreciate U.S. Department of War and the National Science Foundation’s continued support for domestic biomanufacturing and their steadfast commitment to establishing the U.S. as a global leader in the 21st century bioeconomy through BioMADE."

These projects represent a shared investment of over $21 million across 23 different member organizations that are located across the country – from the coasts to the heartland – highlighting the breadth and depth of the rapidly growing U.S. bioeconomy.

"BioMADE's newest projects showcase the dual importance of bioindustrial manufacturing and its benefits to both the commercial and defense sectors," said Stephen Recchia, Program Manager for the Department of War Manufacturing Innovation Institutes. "Bioindustrial manufacturing has the power to secure domestic supply chains for essential chemicals and materials, enhance national security by reducing reliance on foreign inputs, and enable point-of-need manufacturing for warfighters."

For the first time, some of these projects are funded through a partnership with the National Science Foundation, which will support initial efforts from the basic research through proof-of-concept, with BioMADE supporting technology maturation, risk reduction, and scale-up aspects of each integrated project.

"Fundamental biological and biomanufacturing research supported by NSF has led to advances in health, food, fuels and chemicals," said Susan Marqusee, NSF Assistant Director for Biological Sciences. "These new projects build on NSF's long-term investment and help us to further economic growth in industrial biotechnology — a sector that contributes over $200 billion to the U.S. economy."

"By connecting academic researchers with BioMADE's industry members, this public-private collaboration will help realize the potential of fundamental science and engineering research for food, health, chemicals and materials," said Don Millard, head of the NSF Directorate for Engineering. "This partnership will allow researchers to investigate new ideas for biomanufacturing, test and improve new methods at scale, and ultimately make biotechnology advances widely available."

“We’re grateful to the National Science Foundation for their partnership and investment in these projects,” said Melanie Tomczak, Chief Technology Officer and Head of Programs at BioMADE. “BioMADE has always represented the power of collaboration, bringing together public, private, and government partners to enact change for the U.S. biomanufacturing industry. These projects are no different, and I look forward to seeing the wide-reaching effects that our members will have through this work.”  

Bioindustrial manufacturing uses biological systems to convert agricultural feedstocks and waste streams to high-value chemicals, materials, textiles, fuels and lubricants, bioplastics, composites, and other products for consumer and defense needs. Because bioindustrial manufacturing typically uses feedstocks such as corn, soy, and sugar beets, American farmers will benefit from the new markets created by BioMADE technologies, and rural communities will benefit from the manufacturing jobs creating the associated products.

As the U.S. competes for global leadership in this growing industry, these new projects will move the needle by scaling up production of needed products, improving processes that span the industry, and building the needed workforce.

Technology and Innovation Projects

6 projects | $4.6 million DoW funds | $2.2 million NSF funds | $4.8 million non-federal cost share   Federal funding from the U.S. Department of War and the U.S. National Science Foundation

Optimizing Lithium Release and Recovery for Cost-Effective Biomining Processes – This project will develop and validate a scalable microbial process for extracting lithium from produced water, a lithium-rich industrial byproduct generated during oil and gas production.
Member: AlkaLi Labs

Driving Cost Reduction in Biomanufacturing Biomaterials from Methane: Engineering Novel Strains to Increase Downstream Processing Efficiency – By increasing the efficiency of downstream processing, this project will reduce costs and improve overall process economics to produce PHA from methane gas for use in films, fibers, and 3D printing.
Member team: Mango Materials, University of California, Davis

Development of Genomic Language Models to Predict Optimal Genomes for Commercial Protein Production – This project will create a first-of-its-kind predictive AI model that will accelerate strain optimization for the production of resilient and cost-effective proteins capable of wound healing, advanced nutrition, chemical defense, or other defense-relevant compounds.
Member team: Triplebar, University of California, Berkeley

In-Fermenter Cell Datastreams: Wireless Networks of Free-Floating Microbial-Electronic Sensors – Using a network of in-bioreactor free-floating sensors, this project will generate a new type of datastream from industrial bioreactors to enable predictive artificial intelligence (AI) and machine learning (ML) for fermentation optimization.
Member team: Boston University, Capra Biosciences

Cell Cultured Chocolate – Through novel bioreactors, improved vessel and media sterilization methods, and in-line biomass sensors, this project will lower the production costs of high-quality chocolate products by using cacao plant cell culture.
Member team: University of California – Davis, California Cultured

Low-Cost Nanobody-Based Growth Factor Replacements – This project will develop scalable, low-cost manufacturing methods for next-generation media additives that could enable distributed production and deployment for diagnostics and countermeasures in response to new disease outbreaks warfighters may be experiencing around the world, as well as protecting everyday Americans.
Member team: Roke Biotechnologies, Duke University

Education and Workforce Development Projects

6 projects | $4.4 million federal funds | $5.2 million non-federal cost share   Federal funding from the U.S. Department of War

How To Grow (Almost) Anything: A National Network for Enabling and Scaling EWD in Biomanufacturing – This project will train the next generation of bioindustrial manufacturing talent by creating and implementing a custom curriculum that will include hands-on lab modules, weekly lectures, and individual and network-wide final projects that reflect current and emerging needs in the bioindustrial manufacturing sector.
Member: Massachusetts Institute of Technology

Apprenticeship Framework for Pilot-Scale Bioindustrial Manufacturing Operator Training – By developing an apprenticeship training program for biomanufacturing operators in a pilot plant environment, this work will result in trained apprentices and a blueprint to translate the apprenticeship program to other facilities across the U.S.
Member team: Manus, University of Georgia

DESIGN of a Biomanufacturing EWD Prototype to Support the Growth of South Dakota's Bioeconomy – This pilot-scale biomanufacturing education and workforce development training program will create course content for people at all levels interested in a career in biomanufacturing, including veterans re-entering the civilian workforce.
Member team: Dakota BioWorx, South Dakota Biotech

NC BioMISSION – After partnering with industry to build a robust curriculum, this project will launch an undergraduate certificate program, provide a capstone industry experience, and integrate data analytics, data science, and machine learning for biomanufacturing.
Member: University of North Carolina, Greensboro

SPRINT: Scalable Protein Research for INnovative Training – This project will expand, implement, and publicly share a scalable biomanufacturing training model to prepare thousands of undergraduate students for careers in the bioindustrial manufacturing economy.
Member team: University of California – Davis, MiraCosta College, Modesto Junior College

Strengthening the Life Science Talent Pipeline: Life Science Career Fellowship Personalized Cohort – By working with multiple community colleges in Los Angeles and the Bay Area, this project will provide comprehensive career preparation through personalized industry mentorship, professional development workshops, networking opportunities, and company tours.
Member team: Biocom Institute

Safety and Security Projects

2 projects | $131,000 federal funds | $131,000 non-federal cost share   Federal funding from the U.S. Department of War

Development of Biopesticide Life Cycle Analysis Resources – Researchers will create a comprehensive Life Cycle Assessment and Life Cycle Inventory Data Gap Framework for a representative biopesticide that will include critical data and tools to understand and reduce detrimental impacts throughout the bioproduct life cycle—from raw material sourcing to production and end use.
Member team: Boundless Impact Research & Analytics,Invasive Species Corporation

Resilient Domestic Feedstocks for the U.S. Precision Fermentation Industry – This project will improve domestic bioindustrial manufacturing outcomes and increase its competitiveness through enhanced Life Cycle Assessments (LCA) of feedstocks.
Member: Checkerspot

About BioMADE

BioMADE and its network of over 300 members across 40 states are strengthening American competitiveness, creating a more resilient supply chain, reshoring manufacturing jobs, producing biobased products without relying on foreign inputs, and building a globally competitive 21st century workforce. BioMADE is also launching a Pilot Plant Network of critically needed pilot-scale bioindustrial manufacturing facilities that will propel products out of the lab and into the commercial and defense markets. BioMADE was catalyzed by the U.S. Department of Defense in October of 2020 and is a proud member of Manufacturing USA®. Learn more about BioMADE at biomade.org.  READ MORE