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Campus Heat-Pump Retrofit Priority Map

Decarbonisation of university estates depends on replacing legacy gas heating systems with heat pump technologies across diverse building portfolios. The prioritization map integrates energy signature modeling, envelope readiness assessments, and life-cycle economic indicators to sequence heat-pump retrofits effectively. This strategic framework enables estate managers to optimize capital investments while accelerating institutional carbon abatement milestones.

Objectif

Develop a multi-criteria spatial and technical priority map to phase heat-pump retrofits across campus building assets.

Plan de mise en œuvre

  • 1.Analyze baseline energy profiles and boiler configurations across university facilities.
  • 2.Formulate multi-criteria screening protocols based on building signatures and envelope capacities.
  • 3.Evaluate techno-economic performance metrics across retrofit archetypes.

Aperçu du document

Ceci est un aperçu succinct. La version complète comprend un texte étendu pour toutes les sections, une conclusion et une bibliographie formatée.

Internship Report

Degree:
Campus Heat-Pump Retrofit Priority Map

Author:

Group

First M. Last

Advisor:

Dr. First Last

City, 2026

Contents

Introduction
1. Institutional Decarbonisation Context and Baseline Infrastructure Assessment
1.1. Campus Thermal Demands and Existing Heating Plant Configurations
1.2. Regulatory Targets and Grants for Higher Education Building Portfolios
2. Multi-Criteria Prioritisation Framework and Technical Screening Protocols
2.1. Building Signature Modeling and Envelope Readiness Criteria
3. Techno-Economic Evaluation and Multi-Building Performance Projections
3.1. Life-Cycle Carbon Reductions and Capital Expenditure Feasibility
3.2. Operational Coefficient of Performance and Payback Sensitivity
4. Phased Deployment Strategy and Operational Rollout Priorities
4.1. Immediate Intervention Mapping for Critical Thermal Assets
4.2. Long-Term Campus District Heating Transition Roadmaps
Conclusion
Bibliography

Introduction

Decarbonising university campus infrastructure requires structured technical interventions to transition institutional heating systems away from fossil-fuel reliance. Space heating and domestic hot water generation represent dominant shares of building energy demand across institutional estates [1]. Strategic conversion from conventional gas-fired boilers to air-source or ground-source heat pump technologies offers a reliable engineering pathway toward meeting national and institutional climate commitments [2]. However, capital constraints and divergent building envelope performance across heterogeneous campus assets complicate uniform technical implementation [3]. Systematic prioritisation frameworks must therefore account for thermodynamic feasibility, electrical grid readiness, and capital expenditure optimization to sequence building conversions effectively [5]. By establishing empirical screening parameters through calibrated multi-building models and energy signature methodologies, estate directors can map portfolio retrofits based on tangible emission reduction returns [6]. This project establishes a multi-criteria campus heat-pump retrofit priority map, formulating actionable deployment phases grounded in building envelope characteristics and life-cycle economics.

4.1. Immediate Intervention Mapping for Critical Thermal Assets

Operationalising a campus heat-pump retrofit strategy requires a transparent decision-making protocol that categorises estate assets according to thermal urgency and techno-economic readiness. Estate planners deploy this prioritization framework to target specific campus facilities that yield substantial carbon reductions through the systematic replacement of legacy heating systems. Practical implementation follows empirical campus decarbonisation models, such as phasing out condensing gas boilers in favour of air-source heat pumps supported by institutional energy programmes (12800572). By establishing clear screening criteria, campus managers systematically evaluate building envelope integrity, existing plant configurations, and local electrical distribution infrastructure before scheduling capital-intensive mechanical interventions. To justify resource allocation across diverse university buildings, the multi-criteria mapping protocol integrates verified economic metrics alongside environmental indicators. In line with established techno-economic assessment methodologies, estate administrators assess each building asset using net present value, internal rate of return, and simple payback period calculations alongside projected greenhouse gas emission abatements (crossref-10-3390-su13020983). This multi-tier ranking prevents premature heat pump installation in under-insulated facilities, ensuring that demand-side reductions precede plant electrification. Consequently, campus management applies the resulting priority matrix to sequence phased mechanical retrofits, aligning targeted capital grants with realistic multi-year operational budgets. The operational deployment map thus functions as an actionable strategic roadmapping tool, guiding facilities teams through coordinated scheduling, procurement, and site integration across both administrative and educational buildings without risking thermal comfort or service disruption.

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
    Lien DOI
  2. 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
    Lien DOI
  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.
    Lien DOI
  4. Toward residential building energy conservation through the Trombe wall and ammonia ground source heat pump retrofit options, applying eQuest model
    Abtin Ataei, Mohammad Javad Dehghani
  5. Building energy efficiency retrofit prioritization: A case study of the Iowa Army National Guard
    Benjamin Robertson
  6. Energy Signature Approach for Retrofit Prioritization: A Proposal for Building Identification Methodology
    jisoo Shim, Somin Park, Sowoo Park et al.

Bibliographie

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Projet

NF ISO 690

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Projet

NF ISO 690