i∆M∆3TH3R

i∆M∆3TH3R is an early-stage deep tech company developing a theoretical framework and mathematical proof of concept for a new class of transistor that bypasses the fundamental 60mV/decade Boltzmann subthreshold switching limit. The company's 'Geometric Complex Compounded Computational Equation' leverages alternative physics mechanisms — including intentional quantum tunneling and ferroelectric dipole switching — to enable transistor switching at far lower voltages. The technology claims energy efficiency gains of 100x to 1000x over conventional chips, with envisioned applications including trillion-parameter LLMs running on smartphones and autonomous drones without prohibitive power consumption. The company positions itself as the foundation of a new multi-billion dollar semiconductor paradigm, though the work currently remains at a pre-prototype conceptual and mathematical stage.

Conventional transistors are constrained by the 60mV/decade Boltzmann subthreshold limit, preventing further reductions in switching voltage and creating fundamental energy efficiency barriers for advanced AI workloads on edge devices.

A theoretical new transistor class governed by the 'Geometric Complex Compounded Computational Equation,' exploiting quantum tunneling and ferroelectric dipole switching to bypass the Boltzmann limit and achieve 100x–1000x energy efficiency improvements over existing chips.

Currently at a pre-prototype, conceptual and mathematical proof-of-concept stage; no hardware prototype or commercial traction reported.