Abstract
In this paper, a review of the reasons hindering the use of bioclimatic design principles in informal settlements is attempted and the perspective of bioclimatic design in those contexts is discussed. Among the main candidate reasons is the habit of mind induced by the belief that informal settlements grow organically, so as to invariably end up being optimized for their functional tasks. Another reason lies in the very nature of bioclimatic design, which is based on integration, that can be perceived as too a “weak” guarantee of perspective features, not very suitable for competing with clear-cut and powerful strategies like active climatic control. A third reason is constituted by the technical challenges which are presently still posed by the environmental simulation of open and intermediate spaces, especially in hot climatic conditions. In this context, some promising research lines related to climatic control and passive cooling are identified in this text. Those approaches are likely to benefit from an integrated blend of practice and theory and may contribute to increase the attractiveness of bioclimatic principles for the rehabilitation of informal settlements.
If you find that you’re spending almost all your time on theory, start turning some attention to practical things; it will improve your theories. If you find that you’re spending almost all your time on practice, start turning some attention to theoretical things; it will improve your practice.
(Donald Knuth, computer scientist.) [In: Gonzalez-Gutierrez A (2007) p 99.]
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Notes
- 1.
The most notorious example among many is that of the “conquest” of the cold north-east of the Japanese islands made by the traditional house type suited to the humid south-west.
- 2.
- 3.
Bioclimatic studies on shacks (Mathews et al. 1995, 1999), emergency shelters and low-cost prototypes (Crawford et al. 2005; Krüger and Laroca 2010) seem to be meeting more incentives: the former ones thanks to the low entry barriers related to the construction of the physical prototypes; and the latter ones due to their non-informal (professionally designed, and, in certain cases, professionally produced) nature.
- 4.
Like, for example, the thesis that an architect should only be assigned small groups of dwellings, “small” architectural decision, so as to be given the possibility of reaching a deeper and fuller understanding.
- 5.
In the proposed solution, the stairs to the second story are not placed above the stairs to the first one, and the façade on the street at the second story is not continuous. The result is that the enclosure constituted by the buildings around the courtyard becomes more and more opened to the outside (street and sky) with the height.
- 6.
That of the ventilation through shafts is a solution that has also been investigated in other high-density contexts (e.g. Prajongsan and Sharples 2012), which is a clue of a growing awareness of a need.
- 7.
Indeed, a passively cooled building is very often “served” by many kind of intermediate spaces (shaded, and/or ventilated, and/or wet, and/or in contact with the ground, and/or in view of the sky, etc.), often so much that even its indoor space may be considered an intermediate context between “outsides”.
- 8.
This objective seems to be addressed at the moment by the only ESP-r tool (Beausoleil-Morrison 2002).
- 9.
This objective is addressed by a minority of the main tools in use.
- 10.
Integration is even more important for passive cooling that for passive heating, because in its case more strategies are usually into play.
References
Alexander C (1979) The timeless way of building. Oxford University Press, Oxford, UK
Aquilino MJ (2011) Beyond shelter: architecture and human dignity. Metropolis Books, New York
Aynsley R (1997) Cool pools for buildings in warm humid climates. Int J Biometeorol 40:50–53
Bardhan R, Debnath R (2016) Towards daylight inclusive bye-law: daylight as an energy saving route for affordable housing in India. Energ Sustain Dev 34:1–9
Basalla G (1989) The evolution of technology. Cambridge University Press, Cambridge, UK
Beausoleil-Morrison I (2002) The adaptive simulation of convective heat transfer at internal building surfaces. Build Environ 37:791–806
Boltz W (1994) The origin and early development of the Chinese writing system. American Oriental Society. University of Michigan, Ann Arbor, Michigan, pp 67–72
Booth D, Booth J, Boyles P (1983) Sun/earth buffering and superinsulation. Community Builders, Canterbury, New Hampshire
Bredenoord J, van Lindert P (2010) Pro-poor housing policies: rethinking the potential of assisted self-help housing. Habitat Int 34:278–287
Brunetti GL (2014) Considerations on the environmental performances of deck-ventilated roofs for developing contexts. TECHNE 8:261–270
Citherlet S, Clarke JA, Hand J (2001) Integration in building physics simulation. Energ Build 33:451–461
Clarke JA (2001) Energy simulation in building design, 2nd edn. Routledge, Abingdon-on-Thames, UK
Clarke JA (2015) A vision for building performance simulation: a position paper prepared on behalf of the IBPSA board. J Building Perform Simul 8:39–43
Cook J (1996) Architecture indigenous to extreme climates. Energ Build 23:277–291
Crawford C, Manfield P, McRobie A (2005) Assessing the thermal performance of an emergency shelter system. Energ Build 37:471–483
d’Alpoim Guedes A (1971) The Caniços of Mozambique. In: Oliver P (ed) Shelter in Africa. Highbury Crescent, London
Darwin C (1871) The descent of man and selection in relation to sex. John Murray, London
Dili AS, Naseer MA, Varghese ZT (2011) Passive control methods for a comfortable indoor environment: comparative investigation of traditional and modern architecture of Kerala in summer. Energ Build 43:653–664
Egan MD (1988) Architectural acoustics. McGraw-Hill, New York
Ford B, Schiano-Phan R, Francis E (eds) (2010) The architecture and engineering of downdraught cooling. PHDC Press, London
Fry M, Drew J (1964) Tropical architecture in the dry and humid zones. Batsford, London
Gonzalez-Gutierrez A (2007) Minimum-length corridors: complexity and approximations. Ph.D. Thesis, University of California, Santa Barbara
Gould SJ (1972) Punctuated equilibrium. Harvard University Press, Cambridge, Massachusetts
He J, Hoyano A (2010) Experimental study of cooling effects of a passive evaporative cooling wall constructed of porous ceramics with high water soaking-up ability. Build Environ 45:461–472
Huchzermeyer M (2009) The struggle for in situ upgrading of informal settlements: a reflection on cases in Gauteng. J Dev Southern Afr 26:59–73
Kant K, Mullick SC (2003) Thermal comfort in a room with exposed roof using evaporative cooling in Delhi. Build Environ 38:185–193
Khedari J, Boonsri B, Hirunlabh J (2000) Ventilation impact of a solar chimney on indoor temperature fluctuation and air change in a school building. Energ Build 32:89–93
Kong M, Dang TQ, Zhang J, Khalifa HE (2017) Micro-environmental control for efficient local cooling. Build Environ 118:300–312
Koonin EV (2016) Splendor and misery of adaptation, or the importance of neutral null for understanding evolution. BMC Biol 14:114. doi:10.1186/s12915-016-0338-2
Krüger EL, Laroca C (2010) Thermal performance evaluation of a low-cost housing prototype made with plywood panels in Southern Brazil. Appl Energ 87:661–672
Labaki LC, Kowaltowski DCCK (1998) Bioclimatic and vernacular design in urban settlements of Brazil. Build Environ 33:63–77
Kumar R, Sachdeva S, Kaushik SC (2007) Dynamic earth-contact building: a sustainable low-energy technology. Build Environ 42(6):2450–2460. doi:10.1016/j.buildenv.2006.05.002
Mangin WP, Turner JC (1969) Benavides and the Barriada movement. In: Oliver P (ed) Shelter and society. Highbury Crescent, London
Mathews EH, Richards PG, van Wyk SL, Rousseau PG (1995) Energy efficiency of ultra-low-cost housing. Build Environ 30:427–432
Mathews EH, Weggelaar S, van Wyk SL (1999) The development and testing of low-cost insulation for shacks. Energ Build 29:307–313
Miranville F, Hamada Fakra A, Guichard S, Boyer H, Praene JP, Bigot D (2012) Evaluation of the thermal resistance of a roof-mounted multireflective radiant barrier for tropical and humid conditions: experimental study from field measurements. Energ Build 48:79–90
Ngowi AB (1997) Virtues of construction training in traditional societies. Build Environ 32:289–294
Nguyen AT, Tran QB, Tran DQ, Reiter S (2011) An investigation on climate responsive design strategies of vernacular housing in Vietnam. Build Environ 46:2088–2106
Norman DA (1998) The design of everyday things. MIT Press, Cambridge, Massachusetts
Oakeshott MJ (1962) Rationalism in politics and other essays. Methuen, London
Olgyay V (1962) Design with climate: bioclimatic approach to architectural regionalism. Princeton University Press, Princeton, New Jersey
Oliver P (1997) Encyclopedia of vernacular architecture of the world. Cambridge University Press, Cambridge, Massachusetts
Pearlmutter D, Meir IA (1995) Assessing the climatic implications of lightweight housing in a peripheral arid region. Build Environ 30:441–451
Pearlmutter D, Berliner P (2017) Experiments with a ‘psychrometric’ roof pond system for passive cooling in hot-arid regions. Energ Build 144:295–302
Prajongsan P, Sharples S (2012) Enhancing natural ventilation, thermal comfort and energy savings in high-rise residential buildings in Bangkok through the use of ventilation shafts. Build Environ 50:104–113
Rapoport A (1969) House, form and culture. prentice hall. Upper Saddle River, New Jersey
Reinhart CF, Davila CC (2016) Urban building energy modelling. a review of a nascent field. Build Environ 97:196–202
Rudosfky B (1964) Architecture without architects. The Museum of Modern Art, New York
Sadafia N, Salleh E, Haw LC, Jaafar Z (2011) Evaluating thermal effects of internal courtyard in a tropical terrace house by computational simulation. Energ Build 43:887–893
Safarzadeh H, Bahadori MN (2005) Passive cooling effects of courtyards”. Build Environ 40:89–104
Santamouris M, Pavlou K, Synnefa A, Niachou K, Kolokotsa D (2007) Recent progress on passive cooling techniques advanced technological developments to improve survivability levels in low-income households. Energ Build 39:859–866
Scudo G, Brunetti GL (2007) Progettazione ambientale: strumenti e tecniche. Il Progetto Sostenibile 16:1–4
Silvestrini V (1980) Uso dell’energia solare. Editori riuniti, Roma
Singer C (ed) (1954) A history of technology, vol 4. Oxford University Press, Oxford, UK
Spanakia A, Tsoutsos T, Kolokotsa D (2011) On the selection and design of the proper roof pond variant for passive cooling purposes. Renew Sustain Energ Rev 15:3523–3533
Steadman P (1979) The evolution of designs: biological analogy in architecture and the applied arts. Cambridge University Press, Cambridge, UK
Stohr K, Sinclair C (2006) Design like you give a damn: architectural responses to humanitarian crises. Metropolis Books, New York
UN-Habitat (2003) The challenge of slums—global report on human settlements 2003. Earthscan, London
Valiant L (2013) Probably approximately correct: nature’s algorithms for learning and prospering in a complex world. Basic Books, New York
van Noppen A, Backman J, Ferrario M, Naik M, Mehra R, Yengkom V (MHS—Micro-Home Solutions) (2011) Self construction—enabling safe and affordable housing in India. Micro-Home Solutions, New Delhi
von Zabeltitz C, Baudoin WO (2005) Greenhouses and shelter structures for tropical regions. Daya Publishing House, New Delhi
Weber W, Yannas S (2013) Lessons from vernacular architecture. Routledge, Abingdon-on-Thames, UK
Winston P (1992) Artificial intelligence. Pearson, London
Zamora B, Kaiser AS (2010) Numerical study on mixed buoyancy-wind driving induced flow in a solar chimney for building ventilation. Renewable Energ 35:2080–2088
Zhai ZJ, Previtali JM (2010) Ancient vernacular architecture: characteristics categorization and energy performance evaluation. Energ Build 42:357–365
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Brunetti, G.L. (2018). Bioclimatic Design for Informal Settlements. In: Petrillo, A., Bellaviti, P. (eds) Sustainable Urban Development and Globalization. Research for Development. Springer, Cham. https://doi.org/10.1007/978-3-319-61988-0_12
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