By developing innovative technologies and fostering a collaborative ecosystem, we aim to transform industries – from semiconductors to biotech.
This isn’t science fiction—it’s the next leap in nanomechanical engineering. And it’s happening now.
Multi-Axis Nanomechanics & Why It Matters
Imagine molecular-scale “arms” [protein structures] that can grip and move molecules in multiple directions—like tiny robotic levers, but a billion times smaller. By unlocking multi-axis control at this scale, we can:
Transform Nanoassembly
By developing innovative technologies and fostering a collaborative ecosystem, we aim to transform industries from semiconductors to biotech.
Enable High-Performance Nanomachines
From color-shifting surfaces to advanced computing components, multi-axis motion makes systems adaptive, not static.
Catalyze AI <> Nanotech
As these “nano-arms” improve, they can form physically reconfigurable circuits—potentially accelerating AI development (and vice versa).
Where we are now: Early-stage, model-driven development
We are in the Model-Based Systems Engineering (MBSE) phase, refining models, gathering data, and conducting proof-of-concept experiments to ensure precision from the start—this isn’t just theory, it’s the foundation for real-world nanomachines that will transform manufacturing, computing, and material science.
Converging Breakthroughs
Decades of research have laid the foundation. Today, four key innovations make molecular-scale assembly not just possible, but inevitable:
Protein Engineering
Read more
Proteins already power the biological world—enzymes catalyze reactions, molecular motors transport cargo in cells, and ribosomes assemble life itself. Now, AI-driven protein engineering is giving us the tools to design and build synthetic proteins with custom mechanical properties, transforming them into programmable nanoscale actuators.
AI models like AlphaFold and Rosetta
Custom protein "nano-levers"
Electrically responsive proteins
Advanced Sensing
Read more
Precision assembly requires real-time feedback, and until recently, our ability to monitor nanoscale movements was too slow and too blurry. That’s changing thanks to next-gen ultra-sensitive sensors and nanoscale imaging techniques.
Single-electron transistors (SETs)
Advanced atomic force microscopy (AFM) and scanning tunneling microscopy (STM)
Fluorescent and plasmonic nanosensors
AI Orchestration
Read more
Even with programmable nano-arms and precise sensing, there’s one more challenge: coordination at scale. A single molecular machine is impressive, but thousands working in parallel unlocks true nanomanufacturing.
Reinforcement learning and AI-driven control systems
Neural networks analyze nanoscale feedback instantly
Parallel operation of thousands of molecular actuators
MEMS & Microelectronics
Read more
To make nanomechanical systems truly useful, they need to interface with real-world hardware—and that's where Micro-Electro-Mechanical Systems (MEMS) and microelectronics come in.
Integrating protein-based nano-actuators into traditional silicon chips
Nanoscale actuators in microelectronics
Dry, anhydrous operation outside of liquid environments
The Roadmap: How We Get There
We’re executing a phased R&D plan guided by Model-Based Systems Engineering (MBSE)—an iterative approach ensuring efficient, data-driven progress:
01
Protein “Nano-Arms” & Minimizing Friction
Single-axis actuators (2–5 nm displacement, ~10 pN force) combined into multi-axis arrays.
DNA as a guide (DNA-templated assembly): Precisely positions these protein arms, allowing mechanical amplification where needed.
Special crosslinking + “smooth” surface design reduce “sticktion” (unwanted sticking) in dry environments, ensuring stable motion.
02
Closed-Loop AI Control
Real-time drift correction at sub-nanometer accuracy—so arms remain precise.
As systems scale to multi-axis arrays, AI can reconfigure them for specialized tasks (e.g., advanced sensors, CNT (carbon nanotube) computing).
03
The Roadmap
Demonstrate single-axis and small multi-axis arrays.
Achieve microscopy-level color shift as a visible milestone.
Expand to multi-micron arrays with higher yield and uniformity.
Milestone: “Mini hero demo” visible to the naked eye.
Develop millimeter- to centimeter-scale arrays and pilot commercial spinouts.
Milestone: Real-time, color-shifting surface—an undeniable proof of large-scale molecular assembly.
What's Possible?
Our ultimate “Hero Demo”—a surface that instantly shifts color and texture—proves that nano-arms can dynamically rearrange molecules at scale. But this is just the beginning.
Join the Open Ecosystem
Meet our team
Building the Future of Manufacturing One Molecule at a Time
