1. “Green Schools” In the Province of Treviso Antonio Zonta Treviso Paving the way for self – sufficient regional Energy supply based on sustainable concepts and renewable energy sources www.manergyproject.eu

2. The Province of Treviso Inhabitants: 888.249 Area: 2.476,68 kmq Density. 358,65 inhab./sq.km 17th most populated province in Italy 14th most densely populated 95 municipalities (of which 13 enclose High School buildings)

3. The buildings under management Typology High School buildings, 41 schools, distributed in 13 municipalities in the Province of Treviso Office buildings concentrated in the new headquarters complex and in a few external offices.

4. The buildings under management

5. The evolution framework 1999 200420112016

6. The Integrated Global Service INTEGRATED GLOBAL SERVICE INTEGRATED GLOBAL SERVICE Attention to the interaction between user and building according to a sustainable vision EPC: Energy Performance Contract with a minimum level of consumption reduction and sharing of economies (Shared Savings) EPC: Energy Performance Contract with a minimum level of consumption reduction and sharing of economies (Shared Savings) Reduction of operating costs and energy consumption Improvement of the management procedures CP: Communication Plan oriented to the active involvement of users in pursuit of proper management-behaviour CP: Communication Plan oriented to the active involvement of users in pursuit of proper management-behaviour pro/cons: incentive provided by the client to achieve certain goals and values ​​ of KPIs Evolution of Information System for the management of the service OBJECTIVES SOLUTIONS

7. Implementation After awarding of the contract, contractors translated the bid specifications into Green School project, which builds on the improvement of management procedures already established. It is proposed to initiate a transformation of school buildings through a combination of Technological Innovation and Social Innovation, to make schools more efficient and sustainable through a combination of innovative technologies, and active participation of citizens/users. TECHNOLOGICAL INNOVATION SUSTAINABLE technological interventions and installations in the belief that even without significant resources available one can do much TECHNOLOGICAL INNOVATION SUSTAINABLE technological interventions and installations in the belief that even without significant resources available one can do much SOCIAL INNOVATION Approach to new technologies and new forms of organization in which students/teachers - not merely play a passive role, but are ready to participate actively in the evolution of the whole building and it’s facilities, also through the use of network, and all the innovations in communications, in order to make technology a tool as functional as possible to the social as well as economic development SOCIAL INNOVATION Approach to new technologies and new forms of organization in which students/teachers - not merely play a passive role, but are ready to participate actively in the evolution of the whole building and it’s facilities, also through the use of network, and all the innovations in communications, in order to make technology a tool as functional as possible to the social as well as economic development The Green School project

8. Technological Innovations 4 SOLAR THERMAL SYSTEMS, STOT=300 sq.m 1 GEOTHERMAL HEAT PUMP SYSTEM 6 PHOTOVOLTAIC SYSTEMS POWER TOTAL OF 120 KW 2 COGENERATION SYSTEMS (Pe = 465 kWe Pt = 670 kWt) 4 SOLAR THERMAL SYSTEMS, STOT=300 sq.m 1 GEOTHERMAL HEAT PUMP SYSTEM 6 PHOTOVOLTAIC SYSTEMS POWER TOTAL OF 120 KW 2 COGENERATION SYSTEMS (Pe = 465 kWe Pt = 670 kWt) RENEWABLE ENERGY SYSTEMS SMART METERING INSTRUMENTS TO REDUCE CUNSUMPTIONS CONDENSING BOILERS INSTALLED IN 19 BUILDINGS, RECONSTRUCTION OF CENTRAL HEATING PIPING IN 7 BUILDINGS, NEW TEMPERATURE CONTROL SYSTEMS IN 23 BUILDINGS, 8 NATURAL GAS SYSTEMS ELECTRIC-ENERGY METER THERMAL-ENERGY METER SURVEY OF THE WATER CONSUMPTION ELECTRIC-ENERGY METER THERMAL-ENERGY METER SURVEY OF THE WATER CONSUMPTION REDUCING LIGHT FLOW REGULATOR IN ONE SCHOOL BUILDING 4300 THERMOSTATIC VALVES IN 28 SCHOOL BUILDINGS 1700 WATERTAPS WITH TIMER OF CLOSURE REDUCING LIGHT FLOW REGULATOR IN ONE SCHOOL BUILDING 4300 THERMOSTATIC VALVES IN 28 SCHOOL BUILDINGS 1700 WATERTAPS WITH TIMER OF CLOSURE ICT SUPERVISION OF THE SYSTEM SMART METERING ACCOUNTING MAINTENANCE MANAGEMENT OF THE PATRIMONY SUPERVISION OF THE SYSTEM SMART METERING ACCOUNTING MAINTENANCE MANAGEMENT OF THE PATRIMONY RENOVATION OF THE PLANTS -12% heat consumption - 400.000 €/year -12% heat consumption - 400.000 €/year -1% electricity consumption -2500 t/year of CO 2 -2500 t/year of CO 2 - 70,8 % use of gas oil

9. Social innovation Promoting the establishment of an Energy Team in each school. Using direct communication channels already present in the 2 generation. Finding and training Energy Officer of the Campus. Through the Energy Officer of the Campus, create formation of new Energy Team in the schools. Training continues in the Energy Teams Economic bonuses to be distributed to schools according to participation. Competition for the distribution of bonuses Smart metering as a liaison between the user and technology. Ability to measure at any time the level of consumption and thus the efficiency of the actions and behavior New ECO web portal: a tool for communication, training and sharing dedicated to all citizens or users and to the diffusion of the project-model TOOLS: GOALS : Spreading the culture of energy saving and sustainability Participation for the improvement of energy performance in the school buildings

10. Establishment of an Energy Team EO 1 EO 2 EO 3 EO 5 EO 6 EO 4 Promoting the establishment of an Energy Team in the schools. Using direct communication channels already present in the 2 generation. Finding and training Energy Officer of the school. Through the Energy Officer of the school, create formation of new Energy Team in the schools, coordinated by a teacher and composed by the faculty, students and staff. Education continue in the Energy Team and through involvement of increasingly large segments of the school population Promoting the establishment of an Energy Team in the schools. Using direct communication channels already present in the 2 generation. Finding and training Energy Officer of the school. Through the Energy Officer of the school, create formation of new Energy Team in the schools, coordinated by a teacher and composed by the faculty, students and staff. Education continue in the Energy Team and through involvement of increasingly large segments of the school population

11. Competition for the allocation of economic bonus to be distributed to schools

12. Smart metering, connecting element between the user and technology Users can check at any moment the effect of actions taken to save The facilities manager has a tool to rapidly assess corrective and preventive action

13. Web portal The functions of the new portal: Managing maintenance operations, logistics (local employment plan), technical documentation and certifications (functions already handled by the old portal) Energy management: real-time visualization consumption (Smart Metering), management of the Middle State Energy of the Patrimony Managing the competition and distribution of bonus/price Presentation of projects implemented by each institution in the field of energy saving Projects carried out by comparison with other institutions, both nationally and internationally (foreseen a section in English) The functions of the new portal: Managing maintenance operations, logistics (local employment plan), technical documentation and certifications (functions already handled by the old portal) Energy management: real-time visualization consumption (Smart Metering), management of the Middle State Energy of the Patrimony Managing the competition and distribution of bonus/price Presentation of projects implemented by each institution in the field of energy saving Projects carried out by comparison with other institutions, both nationally and internationally (foreseen a section in English)

14. The results EXPECTED: Further 8% reduction in energy consumption due to the involvement of users (Qs) Increased environmental awareness among students about sustainability and multiplying effect given by the project due to the educational / pedagogical contribution EXPECTED: Further 8% reduction in energy consumption due to the involvement of users (Qs) Increased environmental awareness among students about sustainability and multiplying effect given by the project due to the educational / pedagogical contribution OBTAINED: Involvement of the users in the management of assets with a specific Communication plan; constitution of the first Energy Team Rationalizing procedures and reducing operating costs with an economy, already determined by the institution with an lowest bid of € 840,000 / year Starting a redevelopment technology already underway aimed at a reduction of 12% in heat consumption and 1% in electricity consumption (Qt)

15. The results

16. Objectives, developments, replicability of the model The savings in management can improve the condition of the school buildings in terms of: Quality of space Safety Further riduction of energy consumption The savings in management can improve the condition of the school buildings in terms of: Quality of space Safety Further riduction of energy consumption The model, although obtained through an evolutionary process, lends itself to be replicated, to an extent and at a time related to the maturity of the contexts. Subjects responsible for managing school buildings in the Provinces of Treviso: 95 Municipalities, in charge of more than 400 school buildings, where similar savings to those of the Province can be obtained The model, although obtained through an evolutionary process, lends itself to be replicated, to an extent and at a time related to the maturity of the contexts. Subjects responsible for managing school buildings in the Provinces of Treviso: 95 Municipalities, in charge of more than 400 school buildings, where similar savings to those of the Province can be obtained Goals for 2016 (end of contract): 20% reduced heat consumption 20% reduced emissions Possible further goal (with economies reinvestment)20% more renewable energy sources Goals for 2016 (end of contract): 20% reduced heat consumption 20% reduced emissions Possible further goal (with economies reinvestment)20% more renewable energy sources

17. The schools A thoroughly examination of the buildings have let to this action plan for technological interventions to be implemented at the schools.

18. Two examples on interventions INSTITUTE Interventions for the exploitation of renewable energy sources Technological requalification interventions Interventions for the remote reading of energy carriers interventions on water consumption Construction of a solar PV system Creation of an air conditioning system to geothermal heat pump Construction of a cogeneration plant or traditional biomass Trasformation for operation with natural gas Replacement of boilers Remaking piping pipes in thermal power plant and substations Completion of the temperature control system Installation of thermostatic valves on radiators Interventions for the remote reading of consumption of solid fuel or gas Interventions for the remote reading of electricity consumption, inst. of equipment x- meter Installing timed taps of hot and cold water terminals A. Palladio PP_1 x X X X X X X X X E. Fermi and Lab PP_2 X X X X X X X X X Technological Innovation – Pilot Project 1 & 2 Actions that are currently being implemented

19. Expected benefits Technological Innovation – Pilot Project 1 «the school A. Palladio» Expected benefits by optimization of the existing plant and installation of a photo-voltaic panel system Primary energy consumptionCarbon dioxide CO2Nitrogen oxides NOx Initial targetFinal target

20. Expected benefits Technological Innovation – Pilot Project 2 «the school E. Fermi» Expected benefits changing from oil to methane gas plant and installing a geothermal plant Primary energy consumptionCarbon dioxide CO2Nitrogen oxides NOx Initial targetFinal target

21. The Province of Treviso headquartes Every time we turn up the heat, the level of CO₂ emissions increases. Because heating is often produced using fossil fuels such as coal and oil. And the production process emits CO₂. The more we can reduce our dependence on fossil fuels, the more we can reduce CO ₂ emissions. 1050 m² photovoltaic panels (200kW) and 1 biofuel plant (360kW) When The Province of Treviso decided to allocate and renovate an existing building complex, it was agreed that alternative sources of energy would be utilized. 1050 m² photovoltaic panels were installed on a field, which together with the biofuel plants would be used to heat and produce energy to the buildings. And to minimize heat loss, a building automation system (BAS) was installed. Cooling/heating from fossil fuels equal to that of 14 single-family houses The solution above provides enough cooling/heating and energy for the 100,000 m³ building complex, that the amount of fossil fuels actually used is no more than it takes to cool/heat 14 single-family houses. The CO₂ accounts show some impressive results: The buildings emits approximately 807 tons less CO₂ pr. year. Energy and cool/heat to 100,000 m³ of buildings using no more fossil fuels than 14 single-family houses (4,458 m³)

22. The Province of Treviso headquartes Fuel consumption and emissions: Consumption of wood chips: approx. 5000 m³ per year Production ashes: approx. 110 m³ / year Gas equivalent: approx. 300,000 m³ Greenhouse gas CO2 equivalent: approx. 700 t / year CO2 emissions to 5000 m³ of wood chips wood: approx. 70 t / year Reduction of CO2 emissions per year: 630 tons - Automated extraction ashes Reduction of CO2 emissions per year: 177 tons - photovoltaico panels Heating and energy using RES = 807 tons/y less emission of CO2 Wood chips

23. Questions

24. On behalf of the Province of Treviso Thank you for your attention! Antonio Zonta azonta@provincia.treviso.it