Establishes the theoretical foundation of GPC. The pattern shape is the design variable. Surveys all application domains and establishes the mathematical framework used across all subsequent papers.

SEI forms once. GPC controls its nucleation — reducing formation time 40–60%, scrap rate 8%→2%, extending cycle life +67%. Primary commercial target for battery manufacturers.

Electrochemical stress reduction through temporal current shaping. Peak ΔT: 32°C → 10°C. SoH at 200k km: 78% → 92%. In-field optimization protocol for deployed packs.

Breaks proportionality between charger count and peak grid demand. Phase-shifted charging patterns across vehicles. Peak demand −20–30%. No substation upgrade required.

The critical 30%→100% commissioning charge. GPC precision aligns module behavior pre-seal, reducing OEM rework and warranty exposure. Divergence equalization before BMS sealing.

Structured current excitation for p-n junction conditioning. Activates carrier mobility and mitigates light-induced degradation and potential-induced degradation effects.

Pattern-controlled break-in for membrane electrode assembly. Uniform hydration, progressive catalyst activation, controlled overpotential distribution. Reduces conditioning time and extends MEA lifetime.

Dual-mechanism charge storage aligned through temporal pattern control. Addresses fundamentally different time constants of faradaic and EDLC storage in a single protocol.

Pattern-driven dopant activation and defect healing across device terminals. Electrical complement or replacement for thermal annealing in power semiconductor conditioning.

Temporal current structure for nucleation kinetics control. Improved grain size, deposit uniformity, and adhesion. Selectivity and removal rate control in etching applications.

Pattern-driven overpotential reduction and HER/OER selectivity improvement for PEM and alkaline electrolyzers. Increased hydrogen output per kWh. Extended membrane lifetime.

GPC controls pore geometry and barrier thickness during anodic oxide growth on aluminium, titanium, and niobium — enabling application-specific coatings for aerospace, medical, and semiconductor end-use.

Pattern control of local dissolution rate and surface uniformity in ECM and electropolishing applications — tighter dimensional tolerance and smoother finishes than DC or conventional pulsed processes.

Intercalation and exfoliation as distinct GPC-controlled phases. Single-layer yield maximization, defect density reduction in scalable 2D material production.

Temporal energy delivery shaping at megajoule scale. Reduces stress loading on capacitor banks. Stabilizes plasma heating and magnetic confinement discharge envelopes.

Pattern-driven HER suppression, product selectivity enhancement, and catalyst surface stabilization. Improved Faradaic efficiency in green chemistry applications.

Pattern-based current control for satellite battery conditioning, defense-grade power delivery and radiation-hardened electrochemical systems.

Applying GPC to electrochemical dyeing, conductive fiber activation, and smart textile surface treatment for uniform coating and reduced process waste.

Temporal current structuring for electrocoagulation, electrooxidation, and disinfection — improving efficiency and selectivity in industrial wastewater treatment.

GPC applied to neural stimulation waveform design — enabling charge-balanced, tissue-safe patterns that adapt to electrode impedance in real time.

Pattern-controlled cathodic protection for pipelines, marine structures and rebar — improving protection efficiency and reducing current consumption over DC methods.

Controlled temporal current patterns for piezoelectric ceramic and polymer poling — achieving higher remnant polarization and more uniform domain alignment than DC poling.