Abstract
The 2004 Asian tsunami devastated the East coast of India, setting in motion the country’s largest reconstruction project. Entire villages had to be rebuilt, including water infrastructure. This paper examines the outcomes of water sector reconstruction across 14 villages that were rebuilt in Nagapattinam District, Tamil Nadu, and Karaikal District, Puducherry. The objective is to critique post-tsunami reconstruction through the lens of ‘water’. The focus is on water quality and methods to cope with poor water quality, but ancillary issues of access, quantity, and pressure are also explored. Household (n = 74) and key informant interviews (n = 66), focus group discussions (n = 14), water quality tests (n = 378), and photographs are used to construct a socio-geographical narrative and a visual ethnography of the post-disaster built environments. A unifying theme is that the hazardous pre-disaster context was essentially refabricated through reconstruction processes to fashion hazardous waterscapes of manmade, engineered proportions—an outcome mirroring a ‘disaster after the disaster.’ Moreover, the ability of residents to manage water-related hazards is limited, because residents have been dealt waterscapes over which they command little power. Many factors exist outside residents’ bounds of influence, permitting few opportunities to surmount, let alone subvert, the hazardous waterscapes. Thus, residents are forced to operate within a narrow band of functional possibilities. The result is not only constrained agency, but that subjects are driven to acclimate, acculturate, and ultimately submit to the waterscapes they inhabit.
This research was supported by a Fulbright-Nehru Fellowship.
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Notes
- 1.
All names of interlocutors are anonymous except for those with official titles.
- 2.
There should be a 30.5 m (100 ft) buffer between groundwater sources and sewerage infrastructure, and groundwater sources should also be placed uphill of sewerage infrastructure (Woodson 2010). At the villages, this buffer is impossible due to high housing (and therefore sewerage infrastructure) densities—which is further complicated by open air defecation. Field measurements indicate that the furthest a hand-pump or borewell is from sewerage infrastructure is 9.1 m, and the flatness of sites precludes the uphill placement of groundwater sources.
- 3.
The ‘poof-poof’ sound, due to dry pipes during non-supply windows, is common across all villages and acts as a sensory reminder of piped water being tainted as a result of no supply or pressure for a majority of the day.
- 4.
A Ministry of Urban Development (2011, 48) report crystallizes this contention: “In a continuously pressurized distribution system, contaminants surrounding the pipelines cannot penetrate even if there are breaks in the pipes and joints. Without continuous pressure, street run-off, drainage water, raw sewage from adjacent sewerage lines and leaky septic tanks get sucked into the water mains.”.
- 5.
Kodams are water collection and storage vessels. They typically hold a volume of 12–18 L.
- 6.
Nath (2000) found that 68% of households in rural India take water from storage vessels in the manner described here. Furthermore, Nath confirms that repeated contact with drinking water during collection, storage, and serving increases risks for post-point contamination, and this was also confirmed in the study villages (see Juran and MacDonald 2014 and Juran et al. 2017).
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Acknowledgments
The author greatly thanks the research participants in Nagapattinam and Karaikal, without whom this research would not be possible. The author also thanks Annie George, BEDROC, Rajagopal Chidambaram, E. Nagarajan, N. Kalyani, and Breeanna Prince for logistical support.
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Juran, L. (2018). Disaster, Development, and Water: The Reconstruction and (Re)Fabrication of Hazardous Waterscapes in Post-tsunami India. In: Reddy, S. (eds) The Asian Tsunami and Post-Disaster Aid. Springer, Singapore. https://doi.org/10.1007/978-981-13-0182-7_5
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