Ozone Generator Electrode Assembly to Prevent Tube Electrode Exfoliation

The electrode structure is segmented into multiple electrodes (first electrode and second electrode) arranged alternately, with each electrode serving as an independent reaction site. This segmentation increases the total active surface area for ozone generation, thereby improving productivity without requiring a single overly complex electrode design

The patent transitions from a single-plane electrode arrangement to a multi-dimensional alternating electrode structure where electrodes are positioned at different spatial locations. This dimensional arrangement increases the effective reaction volume and surface area available for ozone generation, enhancing productivity while maintaining manageable structural complexity

The electrode system is divided into separate, standardized electrode units that can be manufactured independently using conventional techniques. Each electrode segment is simple in design, facilitating ease of manufacture, while the collective arrangement of multiple segments ensures reliable and stable ozone generation through increased total active area

The electrode design employs universal, standardized components that can be manufactured using common fabrication processes. The alternating electrode configuration provides multi-functionality by serving both as individual reaction sites and as a collective system, ensuring reliable performance while maintaining ease of manufacture through component standardization

The electrical power input is distributed across multiple electrode segments rather than concentrated in a single high-power electrode. This segmentation allows the system to achieve high total ozone generation output through the cumulative effect of multiple lower-power reaction sites, improving productivity without requiring excessive energy consumption at any single point

The patent combines multiple electrode reactions into a unified ozone generation system. By merging the output of several electrodes working in parallel, the system achieves high overall productivity while each individual electrode operates at moderate energy consumption levels, optimizing the balance between energy use and ozone generation output

The alternating electrode structure utilizes three-dimensional spatial arrangement to increase the effective treatment capacity. By stacking electrodes in alternating positions across multiple dimensions, the system achieves high water treatment capacity within a compact footprint, avoiding the need for proportional increases in device area

The electrode structure employs a nested or interlaced arrangement where electrodes are positioned within the spatial envelope of the overall device in a space-efficient manner. This nesting approach allows multiple reaction surfaces to occupy overlapping or adjacent spatial regions, maximizing treatment capacity while minimizing the external device footprint