Abstract
With conventional oil production declining in the Western Siberian Basin, Russia is incentivising the development of ‘tight oil’ reserves using hydraulic fracturing technologies. This chapter reviews the existing literature on two under-explored aspects of the unconventional hydrocarbons debate. First, that much of the research on the environmental and social implications of hydraulic fracturing for ‘unconventional oil and gas’ has focused substantively on shale gas. In particular, perspectives on the specific nature of tight oil and its extraction are notably scarce. Second, I argue that the increasingly apparent risks posed by the hydrological implications of climate change, extreme weather and the expansion of tight oil are worthy of much greater empirical attention.
The examples given in this chapter call attention to the specific materiality of tight oil and water, and the way in which water, nature and people mediate each other in an ‘extractive waterscape.’ Thus, the geophysical nature of tight oil is manifest in the intensity of production, and comes into conflict with the increasing intensity of hydrological dynamics. While this poses significant socio-ecological threats to indigenous livelihoods in Western Siberia, it is argued that water can play a key role in resistance. By placing the role of water in mediating cultural relationships with the land, at the centre of these struggles, indigenous space may be reclaimed. I conclude by highlighting three main areas for future research on the subject of tight oil extraction and water resources in the fields of the environmental sciences, physical and human geography.
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Notes
- 1.
‘Okrug’, refers to a federal administrative sub-region. The Khanty-Mansiisk Autonomous Okrug is an administrative sub-region of the Tyumen ‘Oblast’.
- 2.
It is important to clarify the nomenclature between the main conventional and unconventional oil sources, which is often mistaken in the literature. Conventional oil refers to that which is produced from wells using vertical well bores to access discrete accumulations or pools. As the strata hosting these resource bodies typically have high porosity and permeability, the extraction process requires minimal stimulation beyond drilling of the well. Unconventional oils may be referred to more specifically as ‘tight oil’, ‘shale oil’ or ‘oil shale’. Shale and tight oil are conventional oils (light oils with low sulphur content) trapped in unconventional formations with extremely low porosity and permeability at depths of up to 4500 m. Shale oil and tight oil (the latter is also known as ‘light tight oil’ or ‘LTO’) reservoirs differ mainly in respect to the presence of either claystone (in the case of shale oil) or siltstone and/or mudstone (in respect to tight oil). ‘Oil shale’, meanwhile, is a precursor of oil called kerogen, which is trapped in rocks with low porosity and permeability, but at a much shallower depth than those containing shale oil and tight oil. Oil sands, not the subject of this chapter, generally consist of extra heavy crude oil or bitumen trapped in unconsolidated sandstone.
- 3.
Although there are huge variations in estimates stemming from assumptions about what is technically and economically recoverable, and what would be the recovery rate.
- 4.
‘Neft’ translates as ‘oil’ in Russian, with the city having grown out of the Siberian oil boom in the 1960s (Orttung 2016); ‘yugansk’ comes from the indigenous Khanty name of a nearby tributary to the Ob.
- 5.
Obama-DAPL.
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King, O. (2020). Tight Oil and Water: Climate Change and the Extractive Waterscape of Western Siberia. In: Buono, R., López Gunn, E., McKay, J., Staddon, C. (eds) Regulating Water Security in Unconventional Oil and Gas. Water Security in a New World. Springer, Cham. https://doi.org/10.1007/978-3-030-18342-4_9
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