CURRENT
Where It Began
1992 — Cleveland, Ohio
2140 Scranton Rd. — The Flats
The question:
Why do surfaces that appear clean continue to fail in operation?
The shift:
Contamination is not debris.
It is a modifier of energy transfer at the interface.
That realization—not equipment—became the foundation.
It still defines how every system is approached today.
1992
CURRENT
Engineering Background
Over 45 years designing and deploying cryogenic and industrial gas systems
in real-world environments—where physics, not marketing, determines performance.
Experience spans industrial maintenance, power generation, manufacturing,
and heavy industry—where systems must perform under field
conditions, not controlled assumptions.
This work integrates chemistry, materials behavior, industrial
service operations, and gas-based process engineering—with
a focus on energy and mass transfer at the surface–interface.
Early work included founding a cryogenic and dry ice process
systems company in Ohio focused on field deployment, reliability,
and safety—including steam cleaning, BOP process
studies, and CO₂-based injection systems.
Later work expanded into industrial service operations
and system development in Wichita, Kansas.
What Changed
The work expanded beyond application into production and material handling.
During this period, North Coast Dry Ice was established in
Cleveland—operating a 30-ton liquid CO₂ storage system with a 1,000 lb/hr pelletizer.
This changed the perspective.
Performance was no longer defined by the tool alone.
It was determined by how the material was produced, conditioned,
and delivered before it ever reached the interface.
What appeared to be a cleaning problem was often set upstream.
That shift—from tool to system—continues to define the work today.
Core Principle
Cleaning is not a media problem.
It is an energy delivery problem at the interface.
Most systems fail because energy is dissipated before
it ever couples to the surface.
This work exists to correct that.
Where Cleaning Fails
Most cleaning systems do not fail because contamination is present.
They fail because energy never reaches the interface in a usable form.
The stream appears active.
Pressure is high.
Media is flowing.
But by the time it reaches the surface,
the structure has already broken down.
Momentum dissipates.
Particles disperse.
The flow becomes diffuse.
What remains is movement—not coupling.
This is where performance is lost.
Not at the compressor.
Not at the media supply.
At the interface.
When the core does not remain intact to the point of contact,
energy is delivered into the air—not into the contamination layer.
The system appears to work.
But very little is actually being removed.
This is why increasing pressure or media rate
often produces diminishing returns.
The limitation is not force.
It is structure.
How It Works
Performance is determined by what reaches the
interface—not what leaves the nozzle.
The objective is to deliver energy in a form that remains
structured to the point of contact.
This requires controlling how the stream is
formed, not just how much is produced.
Media, gas, and expansion must be
managed as a system.
If the core structure breaks down before reaching
the surface, energy is lost to the surrounding air.
If the core remains intact,
energy couples directly into the contamination layer.
The difference is not pressure.
It is not volume.
It is how the stream is structured and maintained as it travels.
Systems designed around this principle behave differently.
The stream does not disperse prematurely.
It arrives with density, direction, and usable energy.
That is where removal begins.
The DV-1X Surface System platform is the current expression of this work.
It was not developed as a more powerful system.
It was developed to correct how energy is delivered to the interface.
Conventional systems combine media and propellant early, allowing
the stream to expand and disperse before it reaches the surface.
By the time contact occurs, the structure is already lost.
The DV-1X Surface System approach separates these functions.
Media is delivered independently and introduced after the
critical orifice—into a controlled flow where structure can
be maintained to the point of contact.
This changes how the stream behaves.
The core remains intact longer.
Dispersion is reduced.
Energy is delivered in a usable form at the interface.
The result is not a more aggressive system.
It is a more effective one.
DV-1X Platform