Page 104 - Education in a Digital World
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Local Variations 91


            the background conditions”, or what Phillips and Ochs (2007, p.377) term the
            ‘embeddedness’ of educational approaches and provision in “the locally prevailing
            cultural and other conditions”. In these terms, any apparent ‘choice’ of one form of
            educational technology over another needs to be understood as being contextually
            influenced rather than driven by individual choice. The important aspects of
            ‘context’ in this respect are varied – including the political history and political
            present of a country, its linguistic, cultural, religious heritage, as well as economic,
            demographic and geographical circumstances.
              These contextual factors are therefore a potential influence on any instance of
            educational technology ‘implementation’ in any national or local setting. For
            example, all of the nations considered in this book so far vary considerably in terms
            of geography – from small island states to vast multi-state federations. They also vary
            considerably in terms of topography – from mountainous regions to remote low-lying
            plain lands. While matters of physical geography feature rarely in analyses of
            educational technology, it would be unwise to discount the bearing of these character-
            istics on basic technical issues such as network connectivity. As we shall explore further
            on in this chapter, the relative ease with which a country such as Singapore has been able
            to coordinate the mass implementation of digital technology across its education system
            is due in part to the constrained geography of the island state. Other instances of edu-
            cational technology implementation have conversely been influenced by environmental
            issues such as climate change, weather patterns and natural disasters. For example,
            heavy storms in Inner Mongolia provided a major impediment to the Chinese
            government’s planned use of satellite dishes and antennae through the ‘Modern
            Distance Education Project for Rural Schools’ initiative (Latchem and Jung 2010).
            Similarly, the socio-economic consequences of earthquakes in countries such as
            Chile, Haiti and Turkey have been obvious mitigating factors in the recent use of
            educational technology in these contexts. In short, it is often too easy to overlook
            the natural contexts within which educational technology interventions are placed.
              In a similar manner, educational technology is also shaped significantly by variations
            in the man-made physical environment and infrastructure. In understanding fully
            the success of any education technology initiative, thought needs to be given to key
            underpinning material factors such as energy supplies, cabling and wiring, wireless
            and satellite coverage, environmental sustainability and so on. Although unremark-
            able and usually un-noticed, all these infrastructural factors are nevertheless critical
            to the success of any form of educational technology-based change. For example,
            the failure of many educational technology projects in sub-Saharan Africa has often
            been attributed – in part – to the “lack or weakness of connectivity, dilapidated
            infrastructure and power shortages” (Traore 2008, p.8). As Tim Unwin has also
            observed in an African context, “on more than one occasion, ambitious programmes
            have been developed to introduce computers into schools, only for it to be realised
            subsequently that the absence of electricity has meant that only a few such schools
            would actually be able to benefit. Indeed, much of the inequality in the distribution
            of the benefits of ICTs can be attributed to a spatially differentiated supply of basic
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