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Rooftop Solar plus Storage Microgrid for a University Campus

Decentralised rooftop photovoltaic generation combined with battery energy storage provides academic institutions with an adaptable mechanism for peak load shaving and carbon abatement. Balancing capital expenditure, battery degradation cycles, and dynamic educational demand profiles constitutes the primary challenge in institutional energy planning. Coordinated dispatch strategies and modular storage integration enable universities to secure continuous power supply while moderating utility tariff exposure.

कार्य का लक्ष्य

Design a scalable rooftop solar and battery storage microgrid architecture to optimise energy self-consumption and reliability across a university campus.

कार्यान्वयन योजना

  • 1.Evaluate university campus building load profiles and rooftop solar potential.
  • 2.Model battery storage dispatch strategies under dynamic utility tariff structures.
  • 3.Formulate phased rollout guidelines and lifecycle risk mitigation protocols.

दस्तावेज़ विवरण

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Project Report

Degree:
Rooftop Solar plus Storage Microgrid for a University Campus

Author:

Group

First M. Last

Advisor:

Dr. First Last

City, 2026

Contents

Introduction
Project Context and Campus Governance Architecture
Institutional Demand Profiles and Building Classification
Regulatory Standards and Grid Interconnection Requirements
Implementation Framework and Operational Controls
Rooftop Photovoltaic and Storage Sizing Protocols
Intelligent Dispatch Algorithms and Control Architecture
Evaluation Metrics and Operational Performance
Techno-Economic Assessment and Tariff Sensitivity
Rollout Priorities and Phased Deployment Recommendations
Campus Asset Integration and Scalability Pathways
Operational Risk Mitigation and Lifecycle Management
Conclusion
Bibliography

Introduction

Higher education campuses represent substantial commercial electrical loads characterized by diurnal demand peaks that coincide with institutional operating hours and laboratory operations [1]. Deploying decentralised rooftop solar photovoltaic systems alongside battery energy storage establishes an autonomous microgrid capacity capable of mitigating localized distribution network stress while advancing institutional sustainability commitments within academic infrastructure [2].

Conventional reliance on centralised utility feeds exposes academic institutions to escalating time-of-use tariffs and grid reliability constraints during extreme weather events [3]. The intermittent nature of solar irradiance and complex battery degradation mechanisms necessitate robust energy management schemes that coordinate storage charging schedules with fluctuating academic facility load demands and on-site electric mobility infrastructure [1], [4].

This project delineates a techno-economic and operational architecture for implementing a campus-wide rooftop solar plus storage microgrid. By systematically evaluating storage dispatch protocols, network operating limits, and lifecycle expenditure, the framework provides university facility administrators with evidence-based strategies to optimize self-consumption, maintain grid stability, and lower long-term levelised operational costs [5], [6].

Implementation Framework and Operational Controls

Campus facility managers adopt an integrated grid-connected rooftop photovoltaic and battery energy storage architecture to alleviate distribution network constraints while effectively managing dynamic institutional energy demand. Operational criteria for selecting this hybrid configuration prioritize statutory operating compliance, technical dispatch flexibility, and lifecycle cost mitigation across educational buildings. Medium-voltage radial campus distribution networks frequently experience severe operational burdens during peak periods, making distributed rooftop photovoltaic generation and localized battery energy storage systems viable distributed energy resources to alleviate statutory operating limit violations (Battery Energy Storage Systems, 2022). Furthermore, implementing a grid-connected solar photovoltaic and storage configuration fulfills multi-criteria decision-making requirements that systematically assess technical feasibility, environmental performance, and economic parameters across institutional building load profiles (Energy Management Strategies, 2023). Under this practical operational framework, facility engineers deploy mode-based battery scheduling protocols that coordinate behind-the-meter self-consumption schemes with commercial time-of-use tariff structures (Optimal Sizing, 2026). The expected operational application routes midday solar photovoltaic surplus directly into battery storage units, thereby moderating reverse power flow and accounting for long-term battery degradation constraints (Optimal Sizing, 2026). During elevated campus demand intervals, the supervisory control system dispatches stored electrical energy to curtail peak grid demand charges and relieve infrastructure congestion across medium-voltage networks (Battery Energy Storage Systems, 2022). By aligning automated dispatch decisions with campus load profiles and weightage-based multi-criteria assessments, operational teams systematically optimize institutional resource allocation and maintain power reliability across facilities (Energy Management Strategies, 2023).

References

  1. Energy Management Strategies of Solar Rooftop Campus with Battery Energy Storage System (BESS) And EV Supply Equipment (EVSE) using HOMER
    M A A Mazlan, N Y Dahlan
    DOI लिंक
  2. Battery Energy Storage Systems and Rooftop Solar-Photovoltaics in Electric Power Distribution Networks
    Innocent E. Davidson, Rodney Reddy
    DOI लिंक
  3. A comprehensive analysis of eight rooftop grid-connected solar photovoltaic power plants with battery energy storage for enhanced energy security and grid resiliency
    Dwipen Boruah, Shyam Singh Chandel
    DOI लिंक
  4. Energy management of grid connected rooftop solar system with battery storage
    S Charan Teja, Pradeep Kumar Yemula
  5. Evaluating Rooftop Solar Photovoltaics and Battery Storage for Residential Energy Sustainability in Benoni, South Africa
    Webster J. Makhubele, Bonginkosi A. Thango, Kingsley A. Ogudo
  6. Optimal sizing of battery energy storage system with rooftop PV generation system
    Chawin Prapanukool

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