Voltage Wave-Guide

…fect) (66/67) of Figure (7-11) as to Figure (590) of Figure (6-2) to bring-on and perform Voltage Wave-Guide phenomena (57) of Figure (6-2) (66/67) of Figure (7-11) Figure (590 & 57) of Figure (6-2) ... causing and all…

…to Dynamic State Space (800) of Figure (8-4), as so illustrated in WFC memo (427) titled "Voltage Wave-Guide" Static State Space (790) of (8-3) Dynamic State Space (800) of Figure (8-4) ... whereby, the Voltage Wave-Gu…

Voltage wave-guide (570) allows the activation points (E9a xxx E9n) to transpire since wave-guide (570), now, functions as a Quenching Circuit (370) of Figure (3-40) to prevent gas ignition until the traveling gases (u…

…E10n) in linear progression. Together, parallel sides (E9 / El0) not only functions as a "voltage wave-guide" (570) but, also, acts and performs as a "voltage intensifier circuit" when applied gated pulse-frequency (64…

…g water injection cycle... causing Resonant Cavity Zone (35) to function and perform as a voltage wave-guide (86) of Figure (14) since the gradual decrease in cross-sectional circumference area (85) of Figure (14) is i…

…e surface combination thereof ... each resonant cavity design acting and functioning as a Voltage Wave-guide (570) and gap-size (35) sufficient enough to allow the "Quenching Effect" to take place, as illustrated in (7…

…ge Pulse-waves (583/602axxx 583/602n) of Figure (8-1A) to travel the linear length of the Voltage Wave-Guide. The Static Electrical Charging Effect ( -) (585) is set up when applied Electrical Stress Wave-form (RD / RD…

The formation of tubular Traveling Voltage Wave-guide (570a) of Figure (7-12) (WFC Memo 426) as to (770) of Figure (8-1) is physically formed when positive electrical voltage surface (66/E9) and negative electrical vol…

…s of identical length, now, individually forms what is called hereinafter a "Differential Voltage Wave-guide" (1040) ... being defined as heating water by alternate pulsation of opposite voltage fields at different pul…

…lishing Quenching Circuit (370) of Figure (3-40) to prevent gas ignition inside traveling voltage wave-guide (590) of Figure (6-2) as to (730) of Figure (7-12) Quenching Circuit (370) of Figure (3-40) (590) of Figure (…

…e Pulse-waves (583/602a xxx 583/602n) of Figure (8-1A) to travel the linear length of the Voltage Wave-Guide.…

…/953) with (E15/954), each of identical longitudinal axis length, forms the 'Differential Voltage Wave-Guide' (1040), defined by alternate pulsation of opposite voltage fields at different pulse time-on periods per 'Vo…

The Differential Voltage Wave-Guide (1040) is constructed with a smaller tube placed inside a much larger tube, with space between them to allow water to pass through, similar in construction to the linear cylindrical…

The constructed tubular-array of the Differential Voltage Wave-Guide is composed of T304 stainless steel material (or equivalent), chosen for being chemically inert to the voltage deflecting process (1050).…

…termines the rate at which water temperature rises as it travels through the Differential Voltage Wave-Guide (1040).…

The parallel sides (E9/E10) of the conical cavity function as a 'voltage wave-guide' and also act as a voltage intensifier circuit as the applied gated pulse-frequency travels the cavity length toward the exit port (32…

…vity Zone (35) has a gradually decreasing cross-sectional circumference (85), acting as a voltage wave-guide (86) that reduces the parallel voltage surface areas (83/84) from a larger segment (85a) to a smaller segment…

…as passing through it downstream. Consistent with the taper resonant cavity and traveling voltage wave-guide being gas-phase (open-air conical cavity, not water-immersed). ENGINEERING RULE: design the voltage chamber a…

The tubular Traveling Voltage Wave-guide is physically formed when positive voltage surface (E9) and negative voltage surface (E10) are placed in parallel space relationship about a cylindrical axis of rotation, separa…

…material dictates the shape and configuration of the voltage waves and forms the tubular voltage wave-guide matching the water-gap configuration.…

…ess steel material forming voltage surfaces (E9/E10) establishes the Traveling Electrical Voltage Wave-Guide; the electrical conductance zone between the electrical surface (E9/E10) and the dielectric surface tension o…

…ace area (skin effect) (66/67 of Figure 7-11, referencing 590 of Figure 6-2), producing a Voltage Wave-Guide phenomena (57 of Figure 6-2).…

…Capacitance Equation (Eq. 22), illustrated as 650 of Figure 7-4, relative to the Tapered Voltage Wave-Guide (720) of Figure 7-11.…

Each resonant cavity design functions as a Voltage Wave-guide (570) with a gap-size (35) sufficient enough to allow the 'Quenching Effect' to take place, as illustrated in Figure 7-12 (730) and Figure 3-40 (370).…

…hes the Quenching Circuit (370, Figure 3-40) to prevent gas ignition inside the traveling voltage wave-guide (590, Figure 6-2; 730, Figure 7-12).…