Thin-film formation
Rotation forms and renews a thin electrolyte layer on the active electrode surface above the bulk liquid level.
The platform uses partially immersed rotating porous electrode surfaces to form and continuously renew a thin alkaline electrolyte film during operation.
The moving electrode surface is designed to reduce gas accumulation at catalytic sites and support improved wetting, heat transfer and transport of reactants and products. The objective is a compact electrochemical architecture capable of both conventional hydrogen production and value-generating paired reactions.

The public description focuses on the operating concept. Detailed component designs, materials, operating windows and experimental plans are reserved for qualified partners under NDA.
Rotation forms and renews a thin electrolyte layer on the active electrode surface above the bulk liquid level.
The moving interface is intended to assist gas detachment and provide a more controllable reaction environment.
Hydrogen is generated at the cathode while the anode is used for a selected value-added chemical transformation.
Servarray's differentiation is the integration of rotating porous electrodes, thin-film operation, modular cylindrical scaling and paired chemical production within one platform.
Repeated film renewal is intended to maintain contact between electrolyte and the active electrode surface.
Rotation may reduce gas blockage in the reaction zone and support cleaner product collection.
Cylindrical surfaces and future nested configurations may increase active area within a compact footprint.
Capacity is intended to scale through repeatable reactor modules rather than only larger individual cells.
Segmented zones are being evaluated to support monitoring, isolation and power-electronics integration.
The anode can become a production zone for selected chemicals instead of only a source of low-value oxygen.
A priority patent application covering the core technology has been filed in Europe.