Nanotech for

the Macro World

Small-scale production’s biggest step forward.
The Problem

Nanolithography is slow and expensive.

The exceedingly high cost of nanotech production is wildly overpriced and inaccessible to most.

$100K
Single Production Mask
Complex processing hinders prototyping.

Between spin-coating, baking, and de-scumming materials, very little time is left for any reasonable trial and error. Without on-site equipment, every project relies on third-party timelines.

$10M
An Entire System
Costly clean room upkeep.

A full staff is required to maintain a minimum of Class 100 rating required for most commercial clean rooms. For independent nanofabrication institutions, this overhead is not realistic.

Our Solution

Nanoscale Patterning Through Aerosol Coating

With years of research, we have developed a faster and more accessible system and method to self-assembling nanoparticles at a fraction of time and cost.

300%
Increase in production speed
$1/m²
Average cost per implementation
Potential efficiency
Figure A.

Process flow showing self-assembly of submicron colloidal particles self-assembling at an air–water interface as a function of injection time.

Nanoparticle
Aerosol
~10µm
Figure B.

Schematic diagram of aerosolizing nozzle generating micron-scale dispensing droplets carrying submicron colloidal particles.

Colloidal solution
Air
Dip coating bath
Figure C.

Schematic diagram of aerosolizing nozzle generating micron-scale dispensing droplets carrying submicron colloidal particles.

How it works
Step
01

Self-Assembly

Nanoparticles are assembled into patterns on thin liquid interfaces over their desired footprint.

Step
02

Transfer

They are then adhered to any substrate—be it metal, silicon, glass, plastic, curved, or flat.

Step
03

Fabrication

After cleaning and prepping, your nanotech enabled device is ready for production.

Step
04

Removal

Remaining particles not needed are removed from the surface, leaving behind the desired material.

Capabilities
Our process can produce materials ranging in sizes from 100–10,000 nanometers, allowing for a wide variety of applications.

Our process can produce materials ranging in sizes from 100–10,000 nanometers, allowing for a wide variety of applications.

Spheres

The bread and butter of nanotech—all our technologies start with the self-assembly of an array of nanospheres. May be used as-is or as a template to create other nanostructures.

Allow production of
  • Basic Nanolithography
  • Bio-medical Sensors
  • Plasmonic Surfaces
  • Photovoltaic Light-trapping

Meshes

The simplest structures created from our nanoparticle monolayer and top-down process.

Allow production of
  • Flexible Transparent Conductors
  • De-fogging Surfaces
  • Optical Sensors
  • Smart Windows

Cones

Created from top-down processing of our self-assembled nanoparticle monolayer. Nanoscale has demonstrated nanocone fabrication on polymeric, metal oxide, and semiconductor substrates.

Allow production of
  • Light Absorption & Solar
  • Antibacterial Surfaces
  • Anti-fouling Materials
  • De-icing & De-fogging

Opals

Multilayer structures created by successive self-assembly.

Allow production of
  • Structural Color
  • Air and Water Filtration
  • Cooling Surfaces
  • Chemical Catalysis
Forward Thinking
Nanostructures are central to developing the next era of technology.

Nanostructures are central to developing the next era of technology.

Solar Energy

Affordable, lightweight, and highly efficienct.

Our nanostructures enable increased current generation and self-cleaning properties for utility scale, residential, EV integrated, and UAV solar power generation.

Passive Cooling

When integrated into rooftops or automobile paints, our nanostructures can passively lower internal temperatures by as much a 10°C—saving tons of money on electricity bills and lowering greenhouse gas emissions.

Ethical Sustainability

By replacing synthetic dyes and colorants in commercial goods manufacturing with our structural color generating nanostructures, we can eliminate >10,000s tons of toxic pollution accumulating in our aquatic environments.

By tackling a key production bottleneck, this disruptive advance unlocks the door to commercial nanoparticle technologies that could shape our future in energy, computing, and medicine.”

Michael Berger

NanoWork

What’s Next

Nanoscale Fishing

In 2025, we plan to make waves in a market remained unchanged for too long.

High Vibrancy Nanocoated Lures
80%
Brighter

Our lures will outshine leading brands, simply by using the same science that is found in nature, also known as biomimicry.

100%
Bio-compatable

The brightly-colored surface of our lures is zero VOC emitting, without the use of chemicals, dyes, or pigments. In addition to being more environmentally conscious, Nanoscale Fishing products will be made without any use of aerosol paints like others use.

Nano-reinforced Seaweed Bioplastic
Leading Brand
Nanoscale Fishing
41%
Stronger

Substantially stronger than any other product on the market.

100%
Biodegradable

Unlike standard lures, Nanoscale lures ensure we leave nature unharmed if lost or left behind.

Why Fishing Lures?

Our Founder, Gabriel, grew up in Bolivia near lake Uru Uru, a once-thriving waterway. After decades of pollution from industrial waste and trash from the city center, it now has more plastic than water—and no aquatic life.

Upon learning more than 10,000 tons of carcinogens enter our fisheries annually from lost soft plastic lures, he knew it was time to turn the tides.

Photo: Viaje al corazón de Bolivia, CC BY 2.0, via Wikimedia Commons
Our Team

Small, but mighty

Drop us a line. We’re always eager to talk.

Contact
Gabriel Cossio
CEO / Co-Founder

Gabriel is an insightful leader who specializes in using colloidal solutions to self-assemble 2D periodic nanoparticle arrays, with an emphasis developing complex hierarchical nanoparticle structures for nanophotonic applications and leading projects that center light trapping for increased solar energy generation. Nanoscale-Labs' technology is based on his Ph.D. research at the University of Texas at Austin. Gabriel has degrees in physics (BS) and electrical engineering (PhD) from UT Austin.

When he's not chained to the lab, Gabriel can be found marveling at his dog, Lou, and wrecking his thumbs trying to complete all the Dark Souls video games.

Amy Haley
CMO / Co-Founder

Amy is a low-ego, high-integrity communications professional with extensive experience in content marketing and grant writing. Previous clients include Google Education, HP Sustainability, Lenovo, and Susan G. Komen. Amy is an award-winning writer who’s been recognized with a Finny from Demand Gen Report. She also holds a liberal arts degree (BA) from the University of Texas at Austin where she graduated with highest honors.

When she's not feverishly typing away, Amy can be found on Walnut Creek walking with her toothless pup, Gitzy, or snacking on something salty.