# An ECCD--Electronic Charge Compensation Device--As a Quantum Dissipative System
## 4 Operation of an ECCD on a Tentative Quantum Scheme  
In Section 2 of this paper, it was empirically proven that the ECCDs capture and compensate electrical charges (positive and negative) and that they strongly absorb radiofrequency (\(\approx\)GHz). In Section 3, the numerical simulation analysis of radiofrequency field, whereby it is possible to infer the quality of multi-resonator behavior of an ECCD, was summarized. And at the same time, it was shown the spatial distribution of the evanescent field, mainly of electric field of radiofrequency, open the possibly confined electrical charges in two local zones, near to the environmental union of each ECCD caps with the dielectric isolator ring. Radiofrequency fields--as they are oscillating at high frequency--do not induce charge shifts, but--as they are resonant, and therefore stationary--they cause entrapment of electric charges, which increases the effective interaction among them and provides the recombination to enhance charge compensation. Our working hypothesis is that the upper toroid ring traps and confines electrons or eventual negative ions. And the largest and farthest toroid ring, close to the lower caps and even to the stem, traps and confines positive charges (ions +), or most probable holes (positive electron charges). From the viewpoint of absorbable electromagnetic power, it is variable and depends mostly on the accumulation of charges over time and the resonance of the electromagnetic field frequency. In a simple scheme of the two levels [11], the physical statistics indicate that the thermodynamic equilibrium adjusts well enough to the distribution of Boltzmann populations, so that N-/N+ = 1.000221; that is, practically equal, so that any deviation of this equilibrium will tend to be compensated immediately by absorbed or stimulated emission process of electromagnetic radiation, that accompanies the recombination of electric charges. Without doubt, another absorption process will be responsible for the strong selective radiofrequency with a relatively large wide spectrum, in addition to the compensation of electrical charges. All these results, and other coincidences, led us to consider the super-absorption process as a possible quantum-dissipative system. An analogy may be made between the ECCD physical functioning and the quantum device through the super-absorption of light--SaQID [12], if the ECCD fulfills the requirements that the theoretical modeling imposes. It is true that the establishment of these requirements, as written in the quantum engineering [12], was orientated toward the nanotechnological field, mainly toward semiconductor quantum dots. Nevertheless, its background is in natural products extracted and modified from bio-synthetic materials with molecular ring structures. Meanwhile, the ECCD is a macro device (\(\approx\)dm) absorbing or super absorbing radiofrequency fields (\(\uplambda\approx 10\) cm). In any case, the formal analogy may be established, not considering several orders of magnitude, provided:  
1. That the geometrical structure of both devices (SaQID and ECCD), the spatial distribution of its components (or parts), and the functions, are identical in both cases. This is clearly shown in Figure 1 of [12], transposed in Figure 10 of this paper, Figure 1 (ECCD model 100) and Figures 7-9 of this paper, together with the simulations of the electromagnetic field shown in Ref. [4]. 2. That the final behavior or both devices (SaQID and ECCD) is the same--strongly absorbing variable electromagnetic fields: light for SaQID and radiofrequency for ECCD. In general, both devices are strong energy dissipators for the capture of \"excitons\" (electrical charges of different signs and electromagnetic fields that are related). 3. That the requirements of physical variables for a super-absorption process are fulfilled in an ECCD compared with the SaQID. This was proven, not considering several orders of magnitude, and with the available, reliable data.