Peningkatan Kenyamanan Termal dan Pencahayaan Alam Gedung Sekolah Dasar di Kawasan Padat Hunian di Surabaya
Abstract
A humid tropical climate characterized by high temperatures, relative humidity and solar radiation results in uncomfortable environmental conditions. Discomfort will be worse if the building is in a dense urban area. Densely building masses often weaken the local wind speed which is necessary for evaporative cooling process in tropical climate. In addition, the narrow distance between buildings can reduce access to daylight. Both of these environmental problems were experienced by SDIT Al Uswah Surabaya, which building is located in a densely populated neighbourhood. Along with the development program of educational facilities and infrastructure at the school, improving environmental conditions with passive concept is maintained and prioritized. Embodiment of the environment with the Selective Environment approach is used in this activity. The results of this activity will be in the form of design proposals for improving ventilation and lighting in classrooms. The limitation of expanding openings becomes an obstacle in fulfilling the natural ventilation and lighting requirements. In addition, the design of a three-storey building with a single loaded corridor requires special consideration for the design of sun shading that is safe for elementary school-age children, but still supports passive lighting and ventilation.
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Hawkes, Dean. Mc Donald, Jane dan Steemers,Koen. (2002). The Selective Environment.Spon Press. London and New YorkISBN 0-419-23530-2. Szokolay, S. V. (2004). Introduction to Architectural Science: The Basis of Sustainable Design. Oxford: Architectural Press. Wong, N., & Li, S. (2007). A study of the effectiveness of passive climate control in naturally ventilated residential buildings in Singapore. Building and Environment 42, 1395–1405. Barnett, Peter. Davies, Fays. Zhang, Yufan. Barret, Lucinda. (2015) The impact of classroom design on pupils’ learning final results of a holistic, multi level analysis. Journal of Building and Environment, volume 89 page 118-133, Elsevier, Ltd. Marchand, Gwen.C; Nardi, Nicholas.M; Reynolds, Douglas; Pamovkov, Stoil. (2014) The impact of the classroom built environment on students perceptions and learning. Journal of Environmental Psychology Vol 40, page 187-197. Elsevier Ltd. De Abreu-Harbich. L.V, et al, (2018), Evaluation of strategies that improve the thermal comfort and energy saving of a classroom of an institutional building in a tropical climate, Vol (135), 257-268, Building and Environment, ScienceDirect, Elsevier, Anglo-Dutch. Koenigsberger. OH, Ingersoll. TG, Mayhew. Alan, Szokolay. SV (1973), Manual Of Tropical Housing And Building Climatic Design, Universities Press, Orient Blackswan Private Limited, India. Kr'uger. E.L, & Zannin. P.H.T, (2004). Acoustic, thermal and luminous comfort in classrooms, Vol (39), 1055–1063, Building and Environment, ScienceDirect, Elsevier, Anglo-Dutch. Ramprasad. Vittal dan Subbaiyan. Gnanasambandam, (2017), Perceived indoor environmental quality of classrooms and outcomes: a study of a higher education institution in India, ISSN: 1745-2007, Architectural Engineering and Design Management, Taylor & Francis. Standar Nasional Indonesia, (2001), SNI 03-2396-2001 tentang Tata cara Perancangan Sistem Pencahayaan Alami Pada Bangunan Gedung, Jakarta, Badan Standarisari Nasional. Standar Nasional Indonesia, (2001), SNI 03-6572-2001 tentang Tata cara Perancangan Sistem Ventilasi Dan Pengkondisian Udara Pada Bangunan Gedung, Jakarta, Badan Standarisari Nasional. Standar Nasional Indonesia, (2001), SNI 03-6575-2001 tentang Tata cara Perancangan Sistem Pencahayaan Buatan Pada Bangunan Gedung, Jakarta, Badan Standarisari Nasional.
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