June 2025

How bio-based manufacturing not only reduces emissions but actively repurposes carbon, supporting climate-positive production models. Climate Pressure Is Reshaping Manufacturing Decarbonization is no longer optional—it’s a design requirement.Global industries are under pressure to cut emissions, reduce waste, and transition toward net-zero models. Traditional manufacturing—built on extraction, combustion, and centralized infrastructure—is struggling to adapt. Cell-based manufacturing […]

Breaking down the challenges and breakthroughs in scaling synthetic biology for mass production, and how that compares to legacy industries. What It Means to “Scale” in Biology Scaling biology isn’t just growing more—it’s growing smarter.In traditional manufacturing, scaling means adding more machines, labor, or square footage. In synthetic biology, it means replicating molecular processes consistently

A dive into the software, data platforms, and AI systems powering the shift from mechanical engineering to cellular engineering. Design Is Moving from Machines to Molecules We are entering the biological era of design.In the industrial age, design tools focused on mechanical systems—CAD software, assembly blueprints, and physical prototyping. Today, designers are engineering cells. The

A side-by-side comparison of traditional factory models versus automated biofoundries that design, test, and build biological systems. Two Systems, One Goal: Scalable Production Both models aim to produce at scale—but take radically different paths.The traditional assembly line is built for mechanical precision, repeatability, and volume. Biofoundries, by contrast, are automated labs that design and produce

A look at products that are alive or made by living systems—like self-healing materials, responsive packaging, and microbial textiles. What Are Living Products? They’re not just bio-inspired—they’re biologically active.Living products are made with or by living cells, fungi, or microbes. Some are still alive when in use. Others are created by biological processes that give

How digital biological design files can be sent globally and grown locally, disrupting traditional manufacturing and accelerating innovation. From Shipping Goods to Shipping Code Digital biology turns molecules into downloadable instructions.In conventional manufacturing, finished products are made in one place and shipped globally. This model is slow, rigid, and vulnerable to disruption. With digital biological

How decentralized, cell-based production is reshaping logistics, resilience, and local sourcing—cutting the need for centralized infrastructure. The Supply Chain is Getting Smarter—and Smaller Legacy supply chains are brittle, centralized, and resource-intensive.From pandemics to port delays, global supply chains have revealed deep vulnerabilities. Traditional models rely on massive factories, global shipping lanes, and long lead times.

An exploration of how engineered microbes function as distributed, modular biofactories for food, pharma, and textiles—often with minimal waste. What Are Living Machines? Living machines are programmable cells that manufacture useful materials.These machines aren’t made of steel or silicon. They’re living microbes—usually yeast, bacteria, or algae—engineered to perform industrial tasks. They convert basic feedstocks into

How programming cells to synthesize molecules offers a more efficient, adaptable, and sustainable way to produce industrial chemicals. What Is Biomanufacturing 2.0? Biomanufacturing 2.0 uses living cells as programmable factories.At its core, Biomanufacturing 2.0 shifts chemical production from extractive, energy-heavy processes to biological systems engineered through synthetic biology. Instead of building molecules with heat and

Manufacturing is evolving—from machines to microbes. The Traditional Factory Model Is Breaking Why physical infrastructure is no longer enough For over a century, manufacturing meant steel, concrete, and supply chains. Centralized factories turned raw materials into goods, fueled by fossil energy and optimized for scale—not flexibility. But today, climate pressure, fragile logistics, and the demand