THE ZSMC BATTERY ARCHITECTURE / R&D Roadmap
The roadmap defines clear stages of development, from initial formulation and reproducibility to advanced characterization and long-term capability assessments.
Phases of development
The foundation stage. The focus is exclusively on establishing a reproducible Minimal Viable Product (MVP) cell build. Success is defined by the ability to repeatedly manufacture cells that exhibit the predicted open-circuit voltage and basic discharge profile without immediate catastrophic failure. This phase also secures the necessary intellectual property protections.
The core validation phase. With reproducible cells established, the focus shifts to electrochemical and morphological characterization. This includes rigorous Electrochemical Impedance Spectroscopy (EIS) to understand internal resistance and interface behavior, and Scanning Electron Microscopy (SEM) to observe zinc deposition patterns and cathode structural integrity before and after discharge.
The dissemination phase. Dependent entirely on the success and transparency of the Parikshan stage. If the characterization data supports the architectural claims, the focus moves to drafting rigorous technical publications for peer review, and expanding intellectual property coverage via the Patent Cooperation Treaty (PCT) framework.
The long-term capability phase. The ZSMC cell is initially modeled and validated as a primary (non-rechargeable) system to constrain the engineering problem. Only after the chemistry demonstrates exceptional stability and reproducible morphology control will development shift toward assessing its viability as a secondary (rechargeable) system.
Patent activity
The patent record lists Srijal Dutta as inventor for "Hybrid Zn-SnO2-MnO2-CuO Electrochemical Storage System with Enhanced Stability, Safety and Cathode Longevity," with source-work ID IN202631052070 and filing activity dated April 23, 2026.
Patent disclaimer: the actual patent is owned under natural legal guardian.
Validation plan
Multiple cells built from the same protocol with tracked mass loading, pH, drying conditions, and assembly method.
OCV, discharge curves at multiple C-rates, impedance spectroscopy, and cutoff behavior against the modeled dual-plateau profile.
SEM inspection before and after discharge to study zinc surface behavior, cathode structure, and failure signatures.
Controlled tests for thermal behavior, leakage, gel dehydration, and operational boundaries under practical abuse assumptions.