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Campus Heat-Pump Retrofit Priority Map

Spatial prioritization methodologies for heat-pump installations optimize capital resource allocation and accelerate institutional decarbonization targets. Integrating multi-attribute criteria—including thermal envelope performance, existing distribution network constraints, and lifecycle economic returns—enables facility directors to sequence building conversions systematically. This strategic deployment structure mitigates grid capacity stress while ensuring continuous operational efficiency across educational facilities.

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Course Project

Degree:
Campus Heat-Pump Retrofit Priority Map

Author:

Group

First M. Last

Advisor:

Dr. First Last

City, 2026

Contents

1. Project Description and Campus Decarbonization Context
1.1 Building Archetypes and Baseline Heating Infrastructure
1.2 Policy Mandates and Institutional Carbon Targets
2. Technical Implementation Framework and Governance Controls
2.1 Heat-Pump System Selection and Thermal Sizing
2.2 Grid Integration and Operational Governance
3. Evaluation Metrics and Environmental-Economic Performance
3.1 Life-Cycle Emission Reduction and Primary Energy Savings
3.2 Capital Expenditure and Payback Period Modeling
4. Rollout Priorities and Multi-Phase Deployment Plan
4.1 Campus Heat-Pump Retrofit Priority Mapping
Introduction
Conclusion
Bibliography

Introduction

Electrification of space heating in educational building stocks represents a critical pathway toward institutional climate neutrality. Replacing centralized fossil combustion systems with decentralized or networked heat-pump technologies mitigates direct operational emissions across campus infrastructure [1]. Diverse building ages and varying envelope efficiencies necessitate systematic spatial planning to ensure phased capital investments maximize thermal performance [2].

Heterogeneous architectural profiles and legacy distribution systems complicate rapid district-wide electrification without strategic sequencing. Inadequate technical prioritization risks high capital misallocation and grid integration bottlenecks when transitioning high-temperature hydronic networks to low-temperature heat pump loops [4], [5]. Establishing clear technical criteria allows institutions to identify high-impact structures requiring immediate intervention [3].

This project formulates a multi-criteria campus heat-pump retrofit priority framework grounded in energy performance and operational readiness. By synthesizing building archetypes, existing thermal capacities, and lifecycle economics, the model provides an actionable decision-making tool [6]. The resulting spatial priority map guides institutional facility planners in deploying capital efficiently to achieve progressive campus decarbonization [1].

4.1 Campus Heat-Pump Retrofit Priority Mapping

Establishing a campus heat-pump retrofit priority map requires institutional facility managers to categorize campus buildings through systematic technical criteria before initiating capital allocations. The primary justification for this spatial sequencing framework is the necessity to transition away from fossil-fueled infrastructure without overwhelming institutional operating budgets or causing campus-wide distribution disruptions. To achieve this, the prioritization criteria evaluate existing heating assets, thermal distribution constraints, and the feasibility of integrating advanced decentralized thermal systems across distinct building archetypes. Practical implementation begins by targeting facility clusters where legacy condensing gas boilers can be phased out in favor of air-source heat pumps, following demonstrated institutional decarbonization pathways for higher education buildings ("Simulation-based Evaluation," 2024). For denser campus sectors or facility groups with higher baseline heating and cooling demands, the priority schema directs capital toward ambient-loop configurations. Specifically, wastewater-source, ground-source, and hybrid ambient-loop distributed heat pump systems offer viable mechanisms to lower annual energy consumption and greenhouse gas emissions across both proposed constructions and existing building clusters under varying climatic conditions ("Novel Heat Pump-Based Energy Systems," 2026). By applying these multi-tier criteria, facility planners establish a transparent, actionable multi-phase deployment roadmap. Immediate intervention tiers address stand-alone facilities suitable for direct boiler replacement, whereas secondary phases target complex building clusters requiring shared ambient loops. This structured decision matrix guides procurement schedules, aligns engineering designs with institutional climate targets, and coordinates phased utility upgrades across campus zones without disrupting continuous academic operations.

References

  1. Simulation-based Evaluation of Air-Source Heat Pump Retrofit to Phase-out Condensing Gas Boilers. Case Study of Campus Building in Ireland
    Larkin, Gavin, Blanes Restoy, Luis Miguel, Keane, Marcus
    DOI-lenke
  2. Novel Heat Pump-Based Energy Systems for Decarbonization of Cold-Climate Urban Campus Buildings with Case Studies of T.M.U. Campus
    Monica Brands
    DOI-lenke
  3. Building Retrofit and Energy Conservation/Efficiency Review: A Techno-Environ-Economic Assessment of Heat Pump System Retrofit in Housing Stock
    Mustapha Mukhtar, Bismark Ameyaw, Nasser Yimen et al.
    DOI-lenke
  4. Scenario-Based Analysis of Energy Retrofit Strategies and Their Impacts on Building Energy Demand Using a Validated Multi-Building Energy Model: A University Campus Case Study
    Hamed Mohseni Pahlavan, Natasa Nord
  5. Energy, Environmental, And Economic Potential in Building Decarbonization of High-Grade Heat Production: Hybrid heat pump and hydrogen-natural gas boiler
    Miriam Di Matteo, Domiziana Vespasiano, Gianluigi Lo Basso et al.
  6. Electrification and Decarbonization Using Heat Recovery Heat Pump Technology for Building Space and Water Heating
    Byeongho Yu, Dongsu Kim, Jaeyoon Koh et al.

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