Safety Architecture
and Certification Pathway
VENDOR.Max is an Armstrong-type nonlinear electrodynamic oscillator operating in a controlled discharge-resonant regime, within classical Maxwell–Lorentz electrodynamics. Its non-combustion electrodynamic architecture is designed without combustion, rotating mechanical powertrain components, or embedded chemical battery banks — three of the major hazard categories in traditional power systems. Current systems are prototype units validated at TRL 5–6 and are not yet certified; CE and UL certification is targeted for the TRL 8 phase (2027–2028 window).
The operating regime is conditional by construction: it exists only under resonance-synchronization conditions and decays outside them. A one-time startup impulse — on the order of 0.015 Wh over roughly 10–15 seconds — initiates the regime; the startup port then returns to an inactive, no-current state, electrically isolated from the regime nodes. After startup-source disconnection, the operating regime is maintained through regulated internal redistribution within the complete device boundary: secondary-winding feedback returns energy to the capacitor nodes under Battery Boundary Management System (BBMS) supervision, while stored-energy exchange remains fully accounted for in boundary-level energy accounting.
At the complete device boundary, energy accounting closes at every operational state: P_in,boundary = P_customer + P_losses + dE_stored/dt. Here P_in,boundary is an accounting reference at the complete device boundary, not a topological claim about how the operating regime is organized internally.
Classical energy conservation holds throughout. The surrounding air acts as an interaction medium for the discharge process, not as an energy source.
Hazard 01
No Combustion
No stored fuel, no combustion reaction, no hot exhaust surfaces. Operating temperatures are intended to remain within ranges typical of industrial power-electronics systems, subject to final certification and site-specific conditions. This supports a greatly reduced fire-risk profile relative to engine-based systems.
Hazard 02
No Rotating Machinery
The architecture contains no rotating assemblies, belts, or moving parts. Mechanical failure modes and rotating-equipment maintenance hazards are absent by architecture, while predictable electronic failure modes remain.
Hazard 03
No Embedded Chemical Battery Bank
No embedded chemical battery bank is used as the primary load-supply architecture. Consequently, there is no lithium-ion thermal-runaway pathway or acid-exposure hazard under normal operation. WEEE and RoHS requirements apply in standard form.
Path to Certification
Certification follows technology readiness — from prototype validation at TRL 5–6, through pilot validation at TRL 7, toward formal conformity assessment at TRL 8, with CE marking and applicable UL conformity pathways, including UL 508 where applicable, targeted for the 2027–2028 window. Core targets are IEC 62368-1 (electrical safety), EN 55011 / CISPR 11 and the IEC 61000-4 immunity series (EMC), and ISO 9001 / 50001 / 14001 (quality, energy, environment). The plan assumes one to two design-iteration cycles as standard for novel technology, with parallel notified-body engagement across EU and North America to reduce single-pathway dependency.
Technical safety documentation is available to qualified evaluators upon request via contact. Investor materials are available through the Investor Room.