The theme of the energy requalification of historic buildings is addressed considering the Palaeontology Museum of Naples (Southern Italy). It is assessed whether, through non-invasive methods and without intervening on the building envelope, it is possible to obtain internal hygrothermal parameters suitable to allow both occupants’ thermal comfort and satisfactory conservation conditions for the archaeological finds. In addition, a relevant reduction of energy requirements and CO2 equivalent emissions is required. Dynamic energy simulations are conducted regarding both the current configuration and the various possible modifications concerning the air conditioning system; the model is calibrated by comparison with real energy consumption data. The electric and primary energy are compared for the various cases. Furthermore, the internal hygrothermal conditions for occupants’ thermal comfort and for conservation of the archaeological finds are analysed. Finally, the possibility of inserting a suitable and minimally invasive photovoltaic system is evaluated and an almost ‘Double Plus-Zero Energy Building’ is obtained.
ArumägiEMändelMKalameesT (2015) Method for assessment of energy retrofit measures in milieu valuable buildings. Energy Procedia78: 1027–1032.
2.
AscioneFBiancoNDe MasiRF, et al. (2015a) Energy retrofit of an educational building in the ancient center of Benevento. Feasibility study of energy savings and respect of the historical value. Energy and Buildings95: 172–183.
3.
AscioneFBiancoNMauroGM, et al. (2019) Villas on Islands: cost-effective energy refurbishment in Mediterranean coastline houses. Energy Procedia159: 192–200.
4.
AscioneFCeroniFDe MasiRF, et al. (2015b) Historical buildings: multidisciplinary approach to structural/energy diagnosis and performance assessment. Applied Energy185: 1517–1528.
5.
AscioneFChecheNDe MasiRF, et al. (2015c) Design the refurbishment of historic buildings with the cost-optimal methodology: the case study of a XV century Italian building. Energy and Buildings99: 162–176.
6.
AscioneFde’ RossiFVanoliGP (2011) Energy retrofit of historical buildings: theoretical and experimental investigations for the modelling of reliable performance scenarios. Energy and Buildings43: 1925–1936.
7.
American Society of Heating, Refrigerating and Air-Conditioning Engineers (ASHRAE) (2017a) International Weather Files for Energy Calculations (IWEC Weather Files). User’s Manual and CD-ROM. Atlanta, GA: ASHRAE.
8.
American Society of Heating, Refrigerating and Air-Conditioning Engineers ASHRAE (2017b) 2017 ASHRAE Handbook – Fundamentals. Atlanta, GA: ASHRAE.
9.
BaloccoCGrazziniG (2007) Plant refurbishment in historical buildings turned into museum. Energy and Buildings39: 693–701.
10.
BelliaLCapozzoliAMazzeiP, et al. (2007) A comparison of HVAC systems for artwork conservation. International Journal of Refrigeration30(8): 1439–1451.
11.
BisenieceEŽoglaGKamendersA, et al. (2017) Thermal performance of internally insulated historic brick building in cold climate: a long term case study. Energy and Buildings152: 577–586.
12.
BlecichPFrankovicMKristiŽ (2016) Energy retrofit of the Krsan Castle: from sustainable to responsible design – A case study. Energy and Buildings122: 23–33.
13.
CongCXiangzhaoMXingL, et al. (2015) Energy analysis of relics museum buildings. Energy Procedia75: 1809–1818.
14.
CEN (European Committee for Standardization) (2010) EN 15757/2010 (European Standard): conservation of cultural property – specifications for temperature and relative humidity to limit climate-induced mechanical damage in organic hygroscopic materials.
15.
CoillotMEl ManjibiMCantinR (2017) Heating, ventilating and cooling impacts of double windows on historic buildings in Mediterranean area. Energy Procedia133: 28–41.
16.
D’AgostinoDDaraioLMarinoC, et al. (2018) Cost-optimal methodology and passive strategies for building energy efficiency: a case-study. Architectural Science Review61(6): 400–409.
17.
D’AgostinoDde’ RossiFMariglianoM, et al. (2019) Evaluation of the optimal thermal insulation thickness for an office building in different climates by means of the basic and modified ‘cost-optimal’ methodology. Journal of Building Engineering24: 100743.
18.
D’AgostinoDde’ RossiFMarinoC, et al. (2017a) Energy retrofit of historic buildings in the Mediterranean area: the case of the Palaeontology Museum of Naples. Energy Procedia133: 336–348.
19.
D’AgostinoDMarinoCMinichielloF, et al. (2017b) Obtaining a NZEB in Mediterranean climate by using only on-site renewable energy: is it a realistic goal?Energy Procedia140: 23–35.
DoukasDIBruceT (2017) Energy audit and renewable integration for historic buildings: the case of Caiglockhart Primary School. Procedia Environmental Sciences38: 77–85.
FilippiM (2015) Remarks on the green retrofitting of historic buildings in Italy. Energy and Buildings95: 15–22.
24.
FrancoGMagriniACartesegnaM, et al. (2015) Towards a systematic approach for energy refurbishment of historical buildings. The case study of Albergo dei Poveri in Genoa, Italy. Energy and Buildings95: 153–159.
25.
GinksNPainterB (2017) Energy retrofit interventions in historic buildings: exploring guidance and attitudes of conservation professionals to slim double glazing in the UK. Energy and Buildings149: 391–399.
26.
GiofrèVPAstaritaV (2016) Progettare i Trasporti: Teoria e Tecnica. Verlag: CreateSpace (in Italian).
27.
GonzálezAGZotanoMÁGSwanW, et al. (2017) Maturity Matrix Assessment: evaluation of energy efficiency strategies in Brussels historic residential stock. Energy Procedia111: 407–416.
28.
Italian Legislative Decree (2011) Document n° 28 (D.lgs. 28/2011) – Attuazione della direttiva 2009/28/CE sulla promozione dell’uso dell’energia da fonti rinnovabili, recante modifica e successiva abrogazione delle direttive 2001/77/CE e 2003/30/CE, 3March (in Italian).
29.
Italian Ministries – Ministerial Decree (2015) (D.M. 26.06.2015) – Applicazione delle metodologie di calcolo delle prestazioni energetiche e definizione delle prescrizioni e dei requisiti minimi degli edifici, 26June (in Italian).
30.
Italian Ministry for Cultural Assets and Activities – Ministerial Decree (2001) Atto di indirizzo sui criteri tecnico-scientifici e sugli standard di funzionamento e sviluppo dei musei, 20May (in Italian).
31.
KassKBlumbergaDZoglaG, et al. (2017) Pre-assessment method for historic building stock renovation evaluation. Energy Procedia113: 346–353.
32.
KramerRVan SchijndeJSchellenH (2017) Dynamic setpoint calculation including collection and comfort requirements: energy impact for museum in Southern Europe. Energy Procedia133: 195–206.
33.
KramerRPSchellenHLvan SchijndelAWM (2016) Impact of ASHRAE’s museum climate classes on energy consumption and indoor climate fluctuations: full-scale measurements in museum Hermitage Amsterdam. Energy and Buildings130: 286–294.
34.
LucchiE (2016) Multidisciplinary risk-based analysis for supporting the decision making process on conservation, energy efficiency, and human comfort in museum buildings. Journal of Cultural Heritage22: 1079–1089.
35.
MarinoCMinichielloFBahnflethW (2015) The influence of surface finishes on the energy demand of HVAC systems for existing buildings. Energy and Buildings95: 70–79.
36.
Martínez-MolinaATort-AusinaIChoS, et al. (2016) Energy efficiency and thermal comfort in historic buildings: a review. Renewable and Sustainable Energy Reviews61: 70–85.
37.
Martinez-MolinaABoarinPTort-AustinaI, et al. (2018) Assessing visitors’ thermal comfort in historic museum buildings: results from a Post-Occupancy Evaluation on a case study. Building and Environment132: 291–302.
38.
PiselloALPetrozziACastaldoVL, et al. (2016) On an innovative integrated technique for energy refurbishment of historical buildings: thermal-energy, economic and environmental analysis of a case study. Applied Energy162: 1313–1322.
39.
President of the Italian Republic (1993) Italian Legislative Decree, August 26, 1993, Document n° 412 (D.P.R. 412/1993) – Regolamento recante norme per la progettazione, l’installazione, l’esercizio e la manutenzione degli impianti termici degli edifici ai fini del contenimento dei consumi di energia (in Italian).
40.
President of the Italian Republic (2013) Legislative Decree, April 16, 2013, Document n° 74 (D.P.R. 74/2013) – Regolamento recante definizione dei criteri generali in materia di esercizio, conduzione, controllo, manutenzione e ispezione degli impianti termici per la climatizzazione invernale ed estiva degli edifici e per la preparazione dell’acqua calda per usi igienici sanitari, a norma dell’articolo 4, comma 1, lettere a) e c), del decreto legislativo 19 agosto 2005, n. 192 (in Italian).
RodriguesCFreireF (2017) Adaptive reuse of buildings: eco-efficiency assessment of retrofit strategies for alternative uses of an historic building. Journal of Cleaner Production157: 94–105.
43.
RotaMCorgnatiSPDi CoratoL (2015) The museum in historical buildings: energy and systems. The Project of the Fondazione Musei Senesi. Energy and Buildings95: 138–143.
44.
ŞahinCDArsanZDTunçokuSS, et al. (2015) A transdisciplinary approach on the energy efficient retrofitting of a historic building in the Aegean Region of Turkey. Energy and Buildings96: 128–139.
45.
ShortCACookMCropperPC, et al. (2010) Low energy refurbishment strategies for health buildings. Journal of Building Performance Simulation3(3): 197–216.
UNI 10339 (1995) Impianti aeraulici ai fini di benessere. Generalità, classificazione e requisiti. Regole per la richiesta d’fferta, l’offerta, l’ordine e la fornitura (in Italian).
48.
UNI EN ISO 7730:2006 (2006) Ergonomics of the thermal environment – analytical determination and interpretation of thermal comfort using calculation of the PMV and PPD indices and locale thermal comfort criteria.
US Department of Energy (2019) Dynamic simulation software DesignBuilder version V.6.0.1.019https://designbuilder.co.uk// (accessed 11 May 2020).
52.
VieitesEVassilevaIAriasJE (2015) European initiatives toward improving the energy efficiency in existing and historic buildings. Energy Procedia75: 1679–1685.
