Battery Materials/Energy Storage

Energy Storage and Battery Materials Development

Chemical Vapor Deposition PowderCoat Technologies to enhance material performance, provide higher energy density and efficiency than previous generation battery materials alone, enabling faster charging times and expanded EV range.

Powders & Advanced Materials

Customized and standard solutions for demanding temperature processes,
CVDE is your best choice

for scaling from R&D to production

for innovative process solutions for commercial markets, government, and university research and development

for testing, simulation, and optimization

for trusted collaboration

for high quality systems and advanced materials

Industrial Manufacturing

PowderCoat 1104™ Features & Benefits:

High Volume Powder Infiltration & Uniform Coating

Multi-Reactor Chambers for Parallel or Sequential Processing

Low-Pressure CVD

5 Zone Resistance Furnace Heating Systems

Customizable Inconel Chamber

Rotating Tumbler for Uniform Mixing

Robust Production System with Enhanced Process Controls
– Temperature Control +/- 0.5°C
– Pressure Control +/- 1%

Rapid Cool Down

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MES Compatible

PowderCoat1104

Research & Development

PowderCoat™ 300

PowderCoat 300™ Features & Benefits:

Powder Infiltration & Uniform Coating

Single Reactor Chamber Processing

Low-Pressure CVD

3 Zone Resistance Furnace Heating Systems

Customizable Quartzware Chamber

Rotating Tumbler for Uniform Mixing

Robust Production System with Enhanced Process Controls
– Temperature Control +/- 0.5°C
– Pressure Control +/- 1%

Rapid Cool Down

Glovebox for Unloading Sample Under Inert Ambient Conditions

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EV-Grade Graphite + Precursor Silane Gas

CVD Equipment’s PowderCoat 1104™ Processing System

Silicon Nanowire Infused Graphite

Industrial Powder Coating for Battery Material

Using our state-of-the-art CVD Processing System designed to generate high-performance nanomaterials for EV battery applications: At an order of magnitude one billionth of a meter, silicon can be infused at the surface of each graphite particle in the presence of silane gas under the proper thermodynamic and kinetic conditions, allowing for these electrical nanowires to be infused or in a way, plugged into the graphite, much like a cord is plugged into an electrical outlet. Once electrically charged, these nanowires remain pliant and do not crack in this state. As a result, this can avoid the inefficiencies of trapping silicon inside. With hundreds of thousands of wires on each graphite particle, more potential energy is gained by silicon, and the energy density of the anode becomes greater.

About Us

Over 40 years of expertise in CVD and thermal process equipment design and manufacturing.
enabling tomorrow’s technologies ™ ”