Energy strategy • architecture • execution
I bridge grid and market objectives with electrical infrastructure, BESS, EMS/SCADA, software and physical delivery — from system-level strategy to commissioning and operational optimization.
Electrical Engineering MSc · PhD student, Óbuda University
Professional positioning
I do not treat policy, power engineering, automation, software and construction as separate disciplines. I connect them into one decision and delivery framework.
I am a Strategic Energy Systems Architect and Lead Engineer working at the intersection of energy infrastructure, energy storage, industrial automation, intelligent control and digital energy platforms.
I hold a Master’s degree in Electrical Engineering and am a PhD student at Óbuda University. My doctoral topic examines energy storage technologies for photovoltaic systems across different timescales, from materials and degradation to operating conditions.
I am a co-author of a 2026 Springer conference paper on electricity-market and grid challenges associated with renewable energy producers.
With more than 20 years of hands-on engineering, project management and physical implementation experience across 0–22 kV environments, I can move from system strategy and technical due diligence to electrical architecture, software-defined control, site execution, commissioning and operational improvement.
My work translates grid flexibility, energy security, renewable integration, market participation and critical-infrastructure resilience into buildable and auditable solutions: PV, BESS, grid and load coordination; EMS/SCADA; PLC and telecontrol; data platforms; forecasting; and operator workflows.
I combine European industrial and electricity-market practice with control concepts informed by U.S. ISO market structures, including market-signal integration patterns associated with environments such as CAISO and ERCOT. The emphasis is on translating market signals into physically constrained, grid-interactive control architectures.
Strategic value
My work creates value by coordinating technical, commercial, operational and policy-facing layers within one accountable system architecture.
Convert flexibility needs, grid requirements, electricity-market signals and policy objectives into technical roadmaps and control requirements.
Design the complete chain from LV/MV infrastructure and BESS through PLC, telecontrol, EMS, SCADA, data and operator decision support.
Build market-aware, forecast-driven and auditable control systems where energy assets respond intelligently to physical and economic conditions.
Evaluate architecture against construction, safety, commissioning, maintainability, operator acceptance and lifecycle performance.
Delivery model
A single, traceable lifecycle links strategic decisions to operational evidence and continuous optimization.
Energy policy, resilience, commercial case, grid and portfolio requirements.
System boundaries, interfaces, requirements, operating model and risk controls.
LV/MV, protection, BESS, automation, communications and detailed design.
EMS, SCADA, software, forecasts, APIs, auditability and market signals.
Project leadership, contractors, installation, integration and commissioning.
Operational KPIs, alarms, model validation, dispatch improvement and lifecycle value.
Core capabilities
My capabilities combine system-level architecture with hands-on engineering depth across power, control, software and project delivery.
System-level framing for storage, renewable integration and infrastructure modernization.
Hands-on project and engineering experience across low- and medium-voltage systems.
Dispatch-ready control built around physical, operational and commercial constraints.
Reliable integration between field devices, utility interfaces and supervisory control.
Production-oriented software that connects telemetry, forecasts, decisions and control.
Analytics and AI/ML applied with deployment constraints and operator trust in mind.
Policy-to-technology bridge
Relevant to government, utilities, investors and industrial asset owners where storage and digital control must support energy security, renewable integration, grid stability and market efficiency.
Selected work
Selected work spans digital energy platforms, control systems, telecontrol, market-aware dispatch and complex field delivery.
A digital decision and control layer connecting asset telemetry, forecasts, operating constraints, market signals and executable dispatch.
Operator-centered monitoring, alarms and decision support designed for continuous energy and industrial operation.
Interoperable communication architecture linking plant controls, EMS/SCADA and grid or system-operator interfaces.
Control patterns that treat price and system signals as inputs to physically constrained BESS and hybrid-energy operation.
End-to-end technical coordination of electrical, automation, software and construction interfaces.
Time-series intelligence integrated into operator workflows and energy-management control loops.
Delivery evidence
Selected experience reflects measurable operational impact, delivery scale and reliability-focused engineering across integrated energy environments.
Electrical engineering practice connects storage operating limits, EMS interfaces, grid requirements, commissioning and asset monitoring.
Selected experience across electrical engineering, critical power, automation, renewable assets, storage and integrated control environments.
Restart-safe services, persistent state, fault workflows, audit trails, alarms, sanity checks and operator-oriented handover.
Academic background & research
The doctoral research examines how material properties, degradation, thermal behaviour and system efficiency affect PV-related storage applications at different timescales.
PhD research topic · Óbuda University · In progress
The doctoral plan compares storage technologies and examines energy density, cycle life, degradation, thermal stability and efficiency for PV-related storage tasks of different durations.
Completed degree
Master’s degree in Electrical Engineering.
Current academic status
Doctoral studies and research are ongoing.
Research scope and planned methods
The university research plan proposes materials-science assessment supported by laboratory and/or industrial measurements where available.
Published conference paper · 1 May 2026
Krisztián Náhol, László Tóth and Zoltán Nyikes (2026). In T. A. Kovács, R. G. Stadler and N. Daruka (eds.), Water as a Cardinal Area of Critical Infrastructure Protection (ICCECIP 2024), Advanced Sciences and Technologies for Security Applications, pp. 273–288. Springer, Cham.
DOI: 10.1007/978-3-032-14058-6_22
The paper discusses technical, economic and regulatory challenges of renewable integration, with attention to electricity-market operation, forecasting, grid flexibility and energy storage.
Selected academic activity · 2026
Hungarian Electrotechnical Association (MEE), 72nd Annual Conference, poster session. Original title: Az energiatárolás szerepe a villamosenergia-rendszer mérlegkör-egyensúlyának fenntartásában. The poster examines EMS-controlled BESS operation under scheduling, power and state-of-charge constraints.
Technology foundation
The technology foundation supports end-to-end system architecture, integration, deployment and accountable delivery.
Engagement level
The highest leverage comes from mandates requiring strategic direction, architectural ownership and real-world execution.
Storage, grid flexibility, energy security and digital-energy roadmaps for executive or public-sector decision makers.
End-to-end ownership of BESS, EMS, SCADA, telecontrol, data and electrical-system architecture.
Multi-site delivery, technical governance, project recovery, stakeholder alignment and commissioning oversight.
HelioNerva / Sentinel platform deployment, joint solution development, international scaling or licensing structures.
Contact
Open to selected strategic advisory, chief architecture, program leadership, international deployment and technology-partnership discussions across energy storage, digital energy and critical infrastructure.