The Globalisation of Science and Technology: Progress, Power, and Peril

Technology has always been a defining force in human history-shaping civilizations, redefining labour, and altering our relationship with nature. From ancient tools to today’s digital networks, the movement of scientific knowledge across cultures has driven both remarkable progress and profound inequalities. As we navigate the complexities of the 21st century, understanding this dual nature of globalised technology becomes essential, especially when considering alternatives like those proposed by Mahatma Gandhi.

Historical foundations of technological diffusion 🔗

Long before modern globalisation, knowledge and technology flowed across borders through trade, conquest, and cultural exchange. National Geographic notes that technological revolution and that sense of ever-quickening change began much earlier than the 18th century and has continued to the present day. Ancient tools, metallurgy, agricultural techniques, and navigation instruments moved along trade routes, transforming societies they touched.

One of the most significant examples of knowledge diffusion is the Hindu-Arabic numeral system. Developed between the 1st and 4th centuries by Indian mathematicians, this positional base-ten system revolutionised mathematics. Indian mathematicians like Aryabhata and Brahmagupta made groundbreaking contributions, including the formalisation of zero as both a placeholder and a number with defined mathematical operations.

By the 9th century, Arabic mathematicians adopted and extended this system. Persian scholar Al-Khwarizmi, working in Baghdad’s House of Wisdom, systematised Hindu-Arabic numerals and their methods, facilitating their spread throughout the Islamic world. The knowledge eventually reached Europe through Spain and Sicily, where Leonardo of Pisa (Fibonacci) introduced it through his 1202 work Liber Abaci, demonstrating how calculations became vastly simpler compared to Roman numerals.

Similarly, Newton’s laws of motion and Einstein’s theories of relativity transformed our understanding of the physical world. These scientific breakthroughs reduced human hardships and expanded possibilities-demonstrating how shared knowledge serves as a catalyst for collective human advancement.

Industrial Revolution and technological empowerment 🔗

The Industrial Revolution represents perhaps the most dramatic example of technology reshaping human society. Beginning in 18th-century Britain, this transformation involved new basic materials like iron and steel, new energy sources including coal and steam power, and revolutionary machines that increased production while reducing human labour.

The coal-fired steam engine became the decisive technology of this era. James Watt’s improvements, including the separate condenser and rotary motion mechanism, vastly increased efficiency. Steam engines freed manufacturers from locating factories near water sources, enabling large enterprises to concentrate in rapidly growing industrial cities. The technology revolutionised multiple sectors: mining, textiles, manufacturing, and transportation.

Agricultural productivity also increased substantially through new equipment like Jethro Tull’s seed drill, improved crop rotation, and animal husbandry advances. This sustained increase in yields fed rapidly growing populations with improved nutrition. The Industrial Revolution transformed economies based on agriculture and handicrafts into economies based on large-scale industry, mechanised manufacturing, and the factory system.

However, this technological empowerment came with significant costs. While the overall amount of wealth increased, harsh labour conditions, long hours, low wages, and child labour became widespread. Many rural workers were forced to migrate to cities as traditional subsistence farming became unsustainable. The revolution laid foundations for labour movements and ongoing struggles for workers’ rights.

Technology transfer and sustainable development 🔗

In the 21st century, the question of how developing nations can access and benefit from technological advances has become central to sustainable development discussions. UNCTAD’s Technology and Innovation Report emphasises that technological learning and innovation are essential for structural transformation and long-term improvements in income and living standards.

Technology transfer involves more than simply handing over equipment-it requires embedding the capacity to understand, adapt, and improve upon technologies locally. Research suggests that effective technology transfer must include not only physical hardware but also technical know-how, capabilities to operate and maintain new technologies, and institutional arrangements that facilitate technological uptake and encourage local innovation.

Scholars argue that for sustainable development, a new model of international technology transfer is needed-one that moves beyond domestic economic drivers, utilises global information technology, and coordinates skill accumulation with technology imports. The TESS Forum notes that developing countries view technology transfer as a key way to reduce technological, knowledge, and capacity gaps, as well as income and wealth disparities.

The challenge remains significant. UN discussions highlight that only about 36 percent of populations in least developed countries use the Internet, compared to 66 percent globally. This digital inequity leaves billions offline, potentially excluding the world’s poorest from the benefits of technological advancement.

The dark side: control, hazards, and inequality 🔗

The development of productive forces has never been class-neutral or power-neutral. Throughout history, technological advances have often been harnessed by dominant powers for control, colonisation, and exploitation-dividing the world into developed and underdeveloped regions.

Nuclear weapons represent one of the starkest examples of technology serving domination rather than human welfare. Scholars have drawn parallels between nuclear weapons and colonialism, noting that both reflect hierarchical control over resources and lives. Nuclear powers outsourced their testing programmes to peripheries and overseas territories, causing widespread contamination and harm to indigenous populations. In Kazakhstan alone, more than 1.5 million people were exposed to significant radiation doses.

Brookings Institution research acknowledges that globalisation and technology are key forces driving innovation and economic growth, but they have also been important factors behind rising inequalities-with technological change playing a particularly strong role. Income and wealth inequalities have risen in practically all major economies.

Environmental threats present another dimension of technological peril. Global warming, largely driven by industrial technologies, exemplifies how innovations meant to improve human life can threaten planetary survival. The spread of diseases facilitated by global transportation networks-from historical pandemics to modern epidemics-demonstrates how interconnectedness creates new vulnerabilities alongside new opportunities.

Dependency theorists argue that technology transfer often involves technologies inappropriate for local needs, controlled by foreign corporations, and reinforcing existing patterns of inequality. This can hinder the development of indigenous technological capabilities and limit nations’ ability to chart their own course.

Gandhi’s alternative techno-cultural paradigm 🔗

Against this backdrop of technological power and peril, Mahatma Gandhi proposed a fundamentally different approach-one centred on human needs rather than industrial expansion. Gandhi’s philosophy helped provide greater equity by promoting technology appropriate to basic needs: food, clothing, shelter, health, and education.

Gandhi believed technology should serve humanity rather than dominate it. His primary concerns were the impact of technology on human relationships, employment, and social justice. He felt that unchecked technological advancement could lead to exploitation of both human labour and natural resources.

The charkha (spinning wheel) became the iconic symbol of Gandhi’s technological vision. Far from being merely nostalgic, the charkha represented dignified labour, freedom from colonial exploitation, and the coexistence of technology with all levels of human existence-not just as tools for the wealthy and intellectual elite. Gandhi emphasised that technology should bring people together rather than create divides.

Gandhi’s concept of appropriate technology refers to technology that is affordable, easy to use, and adapted to local environments. He valued self-sufficiency and autonomy, advocating for development that does not devastate local manpower resources. This framework warns against uncritical adoption of labour-saving technology in contexts where employment is scarce and proposes instead labour-intensive technologies that increase efficiency without causing unemployment.

E.F. Schumacher, heavily influenced by Gandhi, developed these ideas further in his influential work Small is Beautiful. Schumacher’s philosophy rejected intellectual arrogance about wielding technology for human progress, instead advancing humility and adaptation. This thinking remains relevant today amid concerns about climate change, artificial intelligence, and growing inequality.

Core principles of Gandhian technology 🔗

Several key principles define Gandhi’s technological framework. First, need-based development: technology should address genuine human needs rather than create artificial desires. Second, local self-reliance (swadeshi): communities should develop capacity to meet their own needs using local knowledge and resources. Third, employment preservation: technologies should enhance rather than replace human labour, particularly in economies with abundant workforce. Fourth, environmental sustainability: small-scale, village-level technologies can enhance quality of life while protecting the environment from industrial devastation.

Gandhi was not opposed to science itself-he appreciated scientific methods of inquiry and exploration of truth. However, he insisted that technological choices carry moral weight and should be evaluated not merely by efficiency but by their effects on human dignity, community bonds, and environmental health.

Relevance for the 21st century 🔗

As the world confronts climate change, automation-driven unemployment, and widening digital divides, Gandhi’s critique of industrial civilisation gains renewed relevance. His emphasis on appropriate technology offers a framework for evaluating technological choices beyond mere efficiency-considering their social, environmental, and spiritual implications.

This does not mean rejecting modern technology entirely. Rather, it means being selective and thoughtful about adoption, asking whether new technologies serve genuine human needs, whether they strengthen or weaken communities, and whether they are sustainable in the long term. In an age when frontier technologies like artificial intelligence could accentuate existing inequalities or create new ones, such questions become increasingly urgent.

The globalisation of science and technology has undeniably brought tremendous benefits-extending lifespans, connecting distant peoples, and expanding human knowledge. Yet it has also created new forms of domination, environmental destruction, and social dislocation. Navigating this complex terrain requires both appreciating technology’s potential and recognising its perils-precisely the balanced perspective that Gandhi’s alternative paradigm offers.

What do you think? Can Gandhi’s vision of appropriate, people-centric technology offer meaningful guidance in our digital age, or has technological change made his ideas obsolete? How might communities balance the benefits of advanced technology with concerns about inequality and sustainability?

References

1. https://education.nationalgeographic.org/resource/industrial-revolution-and-technology/
2. https://en.wikipedia.org/wiki/Hindu–Arabic_numeral_system
3. https://www.diplomacy.edu/blog/journey-of-zero-evolution/
4. https://www.britannica.com/event/Industrial-Revolution
5. https://unctad.org/page/technology-and-innovation-report-2021
6. https://wires.onlinelibrary.wiley.com/doi/10.1002/wene.422
7. https://tessforum.org/latest/addressing-the-climate-technology-gap-in-developing-countries-through-effective-technology-transfer
8. https://press.un.org/en/2023/gaef3587.doc.htm
9. https://theloop.ecpr.eu/the-global-souths-challenge-to-nuclear-colonialism/
10. https://www.brookings.edu/articles/globalization-technology-and-inequality-its-the-policies-stupid/
11. https://energy.sustainability-directory.com/question/how-does-technology-transfer-affect-developing-nations/
12. https://link.springer.com/article/10.1007/BF02014480
13. https://www.researchgate.net/publication/346742238_Gandhi_and_the_Psychology_of_Technology
14. https://reallifemag.com/appropriate-measures/