HANSCOMBE TECHNOLOGIES
Applied Physical Engineering & Systems Architecture
Technical Inquiry / Commercial Pilot
01 / THE COMMERCIAL HAZARD
Documented Industry Failure Modes
[ 01 ]
High-Voltage DC Characteristics
600V–1000V DC does not cross zero; arcing is continuous and self-sustaining.
[ 02 ]
Rooftop Environmental Stress
Thermal cycling from −20°C to 80°C+ drives solder fatigue and dielectric breakdown in module electronics.
[ 03 ]
Inverter Disconnect Illusion
Disconnecting string inverters stops grid feeding but leaves rooftop modules energized at full Voc under daylight.
02 / EMPIRICAL FIELD EVIDENCE
[ A ]
HelioVolta SolarQ Field Study — Over 60% of inspected commercial and industrial solar assets exhibit critical or major safety defects, predominantly in DC connectors and module-level electronics.
[ B ]
Commercial Logistics Facility Fire Losses — Major warehouse incidents across retail and logistics operators demonstrate that electronic rapid shutdown does not reliably de-energize rooftop modules for first responders.
03 / WORKING DIRECTION
The working direction is to remove electrical generation at its origin rather than interrupt it downstream: a mechanical-first architecture intended to physically attenuate photons at the module level.
01
Cell-Level Zero Potential
02
Passive Failsafe Default
03
Zero Parasitic Draw
04
Elimination of DC Connector Clutter
04 / TECHNOLOGY COMPARISON
PARAMETER
SOLID-STATE MLPE
HANSCOMBE MECHANICAL ISOLATION
Voltage Under Sun
Hazardous DC remains present at module output
Target: cell-level generation attenuated
Fire State
Dependent on electronics, wiring, and communication
Passive state designed to interrupt photon input
Thermal Fatigue
Semiconductor and solder joints cycle at the roofline
Mechanical materials selected around passive endurance
Maintenance Burden
Distributed electronics and connector inspection
Architecture targets reduced electrical clutter
05 / PILOT & GRANT DILIGENCE
Hanscombe Technologies is an independent R&D initiative founded by Sandor Bogdan, developing a patent-pending mechanical alternative to solid-state rapid shutdown. We are actively seeking engineering advisors, academic research partners, and early-stage grant opportunities to validate the prototype.
INSTITUTIONAL INQUIRIES / TECHNICAL PILOTS
CONTACT / COLLABORATE