Measured on the bench, not derived on paper.

Torino Ltd designs high-voltage power electronics and automated control systems, and carries them from architecture through bench verification to production hardware.

Discuss a project

What we design

High-voltage and power electronics

Resonant power stages, multi-band drive, and transformer design characterized on the bench — the hardware where a wrong assumption shows up as heat, arcing or a frequency that will not hold.

Automated control systems

Environmental control, monitoring and the instrumentation that keeps a facility inside its limits without somebody watching it — designed to hold the conditions, not merely report them.

Each project runs the same way: architecture, schematic capture, bill of materials, bench verification, documentation control, and coordination with vendors internationally.

How the work is held to account

Every proposed fix is tested against every constraint already solved.
No part number enters a released document unless it was read from a datasheet.
Where a calculation and a bench reading disagree, the reading wins.
Software finds the disagreement. An engineer decides what it means.

Each rule was written in response to a specific failure. Each has since caught others before they reached fabrication.

The checking is run by AI, in both directions: the design criteria read against what was engineered, and what was engineered read back against the criteria. Every finding carries the clause, datasheet or measurement it came from, so an engineer can check the check. It finds disagreements. It does not resolve them, and it approves nothing.

Selected work

ION-FLUX

A line of solid-state cold-plasma instruments. The Mark V “PIONEER” is a six-band Class E resonant platform, developed alongside the Mark IV “SIGNATURE” and the earlier Mark III, and carried from concept through schematic capture, bill of materials and international vendor coordination.

The transformer program was built and characterized on the bench: secondary behaviour, coupling, assembled resonance and primary geometry, measured rather than calculated. That work established the counter-wound primary as a build requirement, and found the module-spacing adjustment that resolved the platform’s most persistent frequency constraint.

Topology: Class E resonant
Bands: Six
Frequency range: 125–575 kHz
Output per bulb: 15–25 kV

Agrifacture

Automated controlled-environment growing systems: energy-efficient, pathogen-free crop production designed to run at scale, with the growing environment held by the control system rather than by hand.

The design was carried through two pilot facilities, building on earlier research into energy-conserving methods for large-scale agricultural production.

Discipline: Indoor growing
Control: Automated
Pilot facilities: Two

Who leads it

Edward L. McCammon

CEO and Principal Engineer

Fifty-two years in engineering, beginning in 1974 as an electrical apprentice at the Tennessee Valley Authority’s Watts Bar Nuclear Plant and continuing through the startup of nuclear stations and Department of Energy security systems.

The method on this page is the one nuclear commissioning taught: nothing is trusted until it has been proven, and the proof is written down so somebody else can check it.

Discuss a project

edm@torinoltd.com
828 216 3335
Jackson, Wyoming