1. Preamble
Kalinga University recognizes that improving the energy performance of existing buildings is an important component of responsible campus management and its contribution to Sustainable Development Goal 7 (Affordable and Clean Energy). Renovation and refurbishment provide opportunities to reduce avoidable energy demand, improve thermal and visual comfort, integrate renewable energy, and lower the environmental impact of campus operations.
The University has already adopted clean-energy and energy-conservation measures including a 300 kWp solar power installation, sensor-based LED lighting, renewable-energy awareness initiatives and a biogas facility. This policy establishes a structured framework so that future major renovations and building upgrades systematically consider energy efficiency from planning and design through procurement, execution, operation and post-renovation monitoring.
2. Principles
- Energy efficiency first: Renovation decisions shall seek to reduce avoidable energy demand before increasing energy supply.
- Passive before active: Daylighting, shading, ventilation, insulation and other passive measures shall be considered before or alongside mechanical solutions wherever technically feasible.
- Life-cycle approach: Selection of equipment and materials shall consider energy performance, operating cost, durability, maintenance requirements and environmental impact over their useful life.
- Renewable-energy integration: Renovation projects shall assess opportunities to integrate or support solar and other appropriate renewable-energy systems.
- Measurement and continuous improvement: Energy consumption and system performance shall be monitored to identify savings opportunities and support future decisions.
- Compliance and safety: Renovation work shall comply with applicable statutory, electrical, fire-safety, accessibility and building requirements.
- Shared responsibility: Administration, engineering and maintenance personnel, procurement teams, faculty, staff and users of buildings shall contribute to efficient energy use.
3. Objectives
- Improve the energy efficiency of existing academic, administrative, residential and common-use buildings through planned renovation and retrofitting.
- Reduce unnecessary electricity consumption and associated greenhouse-gas emissions.
- Increase the use of energy-efficient lighting, controls, appliances, pumps, motors and cooling/ventilation systems.
- Promote passive design measures such as daylight utilization, shading, ventilation, reflective surfaces and thermal improvement wherever feasible.
- Integrate renewable-energy considerations into major building renovation projects.
- Establish energy assessment, documentation and monitoring as part of renovation planning.
- Encourage procurement of energy-efficient and environmentally responsible materials and equipment.
- Build awareness among campus users and maintenance teams regarding efficient operation of renovated facilities.
4. Scope and Applicability
This policy applies to major renovation, refurbishment, retrofitting and energy-upgradation works undertaken in existing University buildings and associated facilities. It covers academic blocks, laboratories, administrative areas, library and learning spaces, hostels, staff/residential facilities, auditoria, common areas, utility spaces and other University-owned or managed infrastructure. The extent of measures adopted in each project shall depend on building use, technical feasibility, safety, budget and approval by the competent authority.
5. Guidelines
The following guidelines shall be considered during planning and execution of energy-efficient building renovation projects.
5.1 Pre-Renovation Energy Assessment
- Major renovation proposals should include a preliminary assessment of existing electricity use and major energy-consuming systems.
- Where feasible, energy audits or technical assessments shall be undertaken to identify inefficient lighting, cooling, ventilation, pumping, motors, equipment and building-envelope conditions.
- Baseline energy data, available meter readings and renewable-energy generation records should be retained for comparison after renovation.
- Renovation priorities shall be based on expected energy savings, occupant comfort, safety, technical feasibility and life-cycle value.
5.2 Building Envelope and Passive Design
- Renovation shall maximize the use of natural daylight while controlling excessive solar heat gain.
- Shading devices, reflective or cool-roof treatments, roof/wall insulation and appropriate glazing may be incorporated where technically and financially feasible.
- Natural ventilation and cross-ventilation shall be encouraged in suitable spaces to reduce dependence on mechanical cooling.
- Openings, windows, doors and building-envelope gaps shall be maintained to minimize unwanted heat gain/loss and improve indoor comfort.
- Landscaping and shaded areas may be used strategically to support passive cooling around buildings.
5.3 Energy-Efficient Lighting and Controls
- Conventional lighting shall be progressively replaced with energy-efficient LED fixtures during renovation.
- Occupancy/motion sensors, timers and other automatic controls shall be considered for corridors, washrooms, staircases, common areas and other intermittently occupied spaces.
- Lighting layouts shall be designed to make effective use of daylight and avoid over-lighting.
- Outdoor and façade lighting shall be scheduled and controlled to minimize unnecessary operation.
5.4 HVAC, Ventilation and Electrical Systems
- Old or inefficient air-conditioning and ventilation equipment shall be considered for phased replacement with energy-efficient systems when replacement becomes technically or economically justified.
- Temperature settings, operating schedules and preventive maintenance shall be managed to avoid excessive cooling and energy wastage.
- Electrical distribution systems, motors, pumps and major equipment shall be periodically inspected and maintained for efficient operation.
- Energy-efficient, appropriately sized equipment shall be preferred during replacement or new procurement associated with renovation.
- Standby loads and unnecessary operation of computers, laboratory equipment and plug loads shall be minimized through operational controls and user awareness.
5.5 Renewable Energy Integration
Major renovation projects shall assess the suitability of rooftops and associated electrical infrastructure for renewable-energy integration. The University shall protect and optimize the performance of its existing 300 kWp solar power system and may expand solar installations in accordance with technical feasibility, campus energy requirements and approved development plans. Renovation work affecting solar installations shall be coordinated to avoid disruption and ensure safe operation.
5.6 Water, Pumps and Utility Efficiency
- Renovation of water-supply and pumping systems shall consider efficient pumps, automatic level controls and appropriate operating schedules.
- Leakage prevention and water-efficient fixtures shall be encouraged because reducing water demand also reduces pumping and treatment energy.
- Utility systems shall be maintained to reduce avoidable losses and unnecessary operating hours.
5.7 Energy-Efficient Procurement and Materials
- Energy-efficient and, where applicable, BEE star-rated equipment shall be preferred for purchases associated with renovation.
- Procurement specifications should include energy performance, durability, maintenance and life-cycle operating cost where relevant.
- Locally appropriate, durable and environmentally responsible building materials shall be preferred where technically suitable.
- Vendors and contractors shall be informed of applicable energy-efficiency requirements in project specifications and work orders.
5.8 Construction and Renovation Waste Management
- Renovation projects shall seek to minimize material wastage and encourage reuse, recovery or recycling of suitable construction materials.
- Discarded electrical and electronic equipment shall be handled through appropriate e-waste management procedures.
- Construction debris shall be collected and disposed of responsibly in accordance with applicable requirements.
6. Roles and Responsibilities
| Responsible Unit | Key Responsibility |
|---|
| Administration / Engineering & Maintenance | Assess renovation needs, prepare technical proposals, supervise implementation, maintain equipment and preserve energy-performance records. |
| Purchase & Stores | Incorporate approved energy-efficiency specifications in procurement and maintain relevant purchase/technical documentation. |
| IQAC / Sustainability Coordination | Support SDG documentation, review evidence, facilitate periodic reporting and encourage continuous improvement. |
| Deans / HoDs / Unit Heads | Promote responsible energy use in their respective buildings and report operational issues or wastage. |
| Faculty, Staff and Students | Use lighting, cooling, laboratory equipment and other facilities responsibly and support conservation initiatives. |
| Competent Authority | Approve major renovation, investment and policy actions as per University procedures. |
7. Monitoring, Energy Performance and Documentation
- Energy consumption and renewable-energy generation records shall be maintained and reviewed periodically.
- For major energy-related renovations, available pre- and post-renovation data should be compared to assess improvement.
- Key indicators may include electricity consumption, renewable-energy generation, energy use per unit of built-up area, equipment efficiency and estimated cost/energy savings.
- Maintenance records, technical specifications, invoices, photographs, energy-audit observations and commissioning records shall be preserved as supporting evidence.
- Identified energy wastage or under-performing systems shall be referred to the concerned unit for corrective action.
8. Awareness, Capacity Building and Research Integration
Kalinga University shall complement infrastructure improvements with awareness and capacity-building activities. National Energy Conservation Day, renewable-energy awareness campaigns, workshops, seminars, poster competitions, technical exhibitions and student projects may be used to promote responsible energy behaviour. Faculty and student research on solar photovoltaics, hybrid energy systems, smart energy management and other clean-energy technologies may be connected, wherever feasible, with campus sustainability challenges. The University's Solar PV Installation Helper Training Programme under the Green Jobs sector further supports practical clean-energy skills.
9. Review, Accountability and Continuous Improvement
- The implementation of this policy shall be reviewed periodically by the concerned University authorities.
- Energy-efficiency opportunities identified through audits, inspections, maintenance observations and user feedback shall be considered in annual infrastructure planning.
- Renovation measures shall be prioritized according to technical feasibility, expected energy benefit, safety, budget availability and institutional requirements.
- This Policy shall be reviewed at least once every three years, or earlier when required due to changes in technology, applicable regulations, campus infrastructure or sustainability priorities.
10. Approval and Implementation
- This Energy-Efficient Building Renovation Policy shall come into effect from the date of approval by the competent authority of Kalinga University. It shall apply to all concerned administrative, academic, engineering, maintenance, procurement and support units involved in the planning, approval, execution, operation or monitoring of building renovation and energy-efficiency projects.
- The University shall maintain appropriate documentary evidence of implementation and shall progressively strengthen building energy performance in alignment with SDG 7: Affordable and Clean Energy.
