How Translation Services Have Shaped Science and Technology

After the Second World War, science stopped being a national activity and became a global one. Discoveries in physics, chemistry, medicine, and engineering were happening in laboratories from Moscow to Munich, and the findings were written in the language of whoever made them. A breakthrough published only in Russian or German was invisible to a researcher who could read only English. Translation services emerged to solve exactly this problem, and over the following decades they quietly became one of the most important parts of the global research infrastructure. This is the story of how moving knowledge across languages helped move science forward.

Why translation became urgent after the war 🔗

The end of the Second World War triggered an explosion in scientific output. Governments had seen how research shaped the outcome of the war, from radar to antibiotics to atomic weapons, and they poured money into laboratories and universities. The result was a flood of published papers in many languages. The challenge was no longer just making discoveries but keeping track of discoveries made elsewhere.

The political climate sharpened this need. The Cold War created intense competition between the United States and the Soviet Union, and each side wanted to know what the other was working on. When the Soviet Union launched Sputnik in 1957, the United States responded with a national rethink of its scientific research and education, more than doubling the budget of its National Science Foundation. A large part of that anxiety came from a simple realisation: an enormous body of Soviet scientific work existed, and very few Western scientists could read it.

The problem was not entirely new. In the nineteenth and early twentieth centuries, German was the leading language of science, and serious researchers often learned German or studied at a German university. But learning Russian in the post-war United States was far harder, since few institutions taught it well. Translation services filled the gap that language education could not.

The major languages of science and technology 🔗

For most of the modern history of science, four languages dominated technical publishing: English, Russian, German, and French. Each had its own sphere of influence, and a complete picture of any field often required reading across all of them.

German, the early leader 🔗

Before the war, German was the prestige language of chemistry, physics, and medicine. Many foundational papers in these fields were written in German, which is why generations of scientists treated reading knowledge of German as a basic professional skill.

Russian, the post-war priority 🔗

After 1945, Russian became the language that Western institutions worried about most. The Soviet Union ran a vast, centralised research system and published heavily. The Soviet institute VINITI was designed to process essentially all the scientific periodicals of the world through extensive translation, abstracting, and large abstract journals. The scale of this output meant Western science could not simply ignore it.

English, the eventual common tongue 🔗

The effort to systematically translate Russian literature into English had an unintended effect. Historian Michael Gordin has argued that Western efforts to manage the Russian scientific literature ultimately helped cement English as the dominant global language of science. As more material was funnelled into English and as English-language journals grew in prestige, researchers everywhere increasingly chose to publish in English to reach the widest audience. French, meanwhile, remained important in fields such as mathematics and in regions tied to the Francophone world.

The role of governments and institutions 🔗

Translation on this scale was too expensive and too specialised to be left to individuals. It needed organised, funded institutions, and several governments stepped in.

Cover-to-cover translation programmes 🔗

One of the boldest approaches was the “cover-to-cover” translation of entire foreign journals. Rather than translating selected papers, organisations translated complete issues from front to back. In the United States, the National Science Foundation undertook a large-scale programme supporting cover-to-cover translation of Russian publications. This created full English versions of Soviet journals, so that a researcher who knew no Russian could still follow an entire field as it developed. Federal records show the NSF published translations of Soviet polar studies across the 1955 to 1970 period, illustrating how systematic these efforts were.

Specialised translation centres 🔗

Dedicated centres were established to collect, produce, and distribute translations so that the same document would not be translated repeatedly by different people. In the United States, two translation centres were set up to handle this work, including the body that became the National Translation Center, founded in 1953 originally as the SLA Translation Pool. These centres also maintained indexes of existing translations, which prevented wasteful duplication of effort, a serious concern when each translation was costly.

International coordination 🔗

The problem was global, so coordination crossed borders too. UNESCO, whose constitution committed it to the free flow of ideas by word and image, worked from its earliest years on the global circulation of information. International cooperation helped standardise practices and encouraged the sharing of translated materials between countries, reducing the burden on any single nation.

Translation services in India 🔗

India developed its own institutional answer to this challenge early. The Indian National Scientific Documentation Centre, known as INSDOC, was created under the Council of Scientific and Industrial Research and began operating in the early 1950s. INSDOC provided translation services to the scientific community from its inception in 1952, serving national laboratories, research organisations, universities, and research scholars.

The range of languages handled was wide. Translation was offered from around twenty foreign languages into English, including Chinese, French, German, Japanese, Russian, Spanish, and several others, with reverse translation from English into selected foreign languages also available. In 2002, INSDOC merged with the National Institute of Science Communication to form NISCAIR, bringing documentation and science communication activities under one roof. The translation work continued under the new organisation.

A different but related effort addresses translation within the country rather than from abroad. The National Translation Mission, set up on the recommendation of the National Knowledge Commission, aims to make knowledge texts accessible across all twenty-two scheduled languages, treating translation as a tool for democratising knowledge. This reflects a recognition that since English remains the main medium of higher education, technical and scientific material must reach speakers of many languages to be useful.

The rise of machine translation 🔗

The volume of material soon outstripped what human translators could handle, which pushed researchers toward automation. The famous Georgetown-IBM experiment of 1954 demonstrated automated translation of more than sixty sentences from Russian into English, and it was largely the Cold War demand for Russian translation that drove this early research.

Progress was uneven. The 1966 ALPAC report concluded that machine translation was slower and less accurate than human translation, which caused funding to dry up and research to stall for years. One notable survivor was the SYSTRAN system, which was widely deployed translating Russian to English for the United States Air Force during the Cold War. Outside the United States, the need never went away. In Canada, the official bicultural policy created strong demand for English-French translation, and within the European Communities there was constant demand for translating scientific, technical, administrative, and legal documents across all the member languages. These pressures kept machine translation research alive even when American interest faded.

Impact on research and development 🔗

The practical effect of all this work was enormous. Translation services meant that a discovery made anywhere could become usable everywhere, which is the precondition for science to build on itself.

Avoiding wasted effort 🔗

When researchers cannot read each other’s work, they unknowingly repeat experiments that have already been done. Systematic translation reduced this duplication. By making Soviet, German, and French findings available in English, translation let scientists build on existing knowledge instead of starting from scratch, which sped up the overall pace of discovery.

Spreading methods and standards 🔗

Translated materials carried not just results but methods, experimental techniques, and ways of thinking about problems. A laboratory in one country could adopt a procedure developed in another simply because the description had been translated. This cross-pollination raised the quality of research broadly.

Supporting developing scientific communities 🔗

Translation was especially valuable for countries building up their research capacity. As Russian-language journals were systematically translated into English, scientists in rising scientific powers gained access to that literature too. For a nation expanding its universities and laboratories, access to translated global research meant its scientists could participate in international science without first mastering several foreign languages.

From a technical service to a strategic asset 🔗

What began as a wartime and Cold War necessity turned into a permanent feature of how science operates. The translation centres, indexes, and journal programmes built in the mid-twentieth century established the idea that scientific information is a shared global resource that must be made accessible regardless of the language it was first written in. Modern machine translation, now far more capable than the early experiments, continues that mission at a scale the pioneers could only imagine. The underlying goal has not changed: knowledge is only useful when people can actually read it.

What do you think? If translation helped make English the common language of science, what is gained and what is lost when most research is published in a single language? And as machine translation keeps improving, will the careful work of specialised scientific translators still matter for accuracy in technical fields?

References

1. https://www.nsf.gov/about/history
2. https://physicstoday.scitation.org/do/10.1063/pt.6.4.20171017a/full/
3. https://blogs.lse.ac.uk/impactofsocialsciences/2024/11/04/soviet-scientific-publishing-and-the-prehistory-of-preprints/
4. https://egyankosh.ac.in/bitstream/123456789/35912/5/Unit-10.pdf
5. https://www.archives.gov/research/guide-fed-records/groups/307.html
6. https://www.researchgate.net/publication/358033898_Translation_Services_A_Brief_Study
7. https://en.wikipedia.org/wiki/UNESCO
8. https://www.indiamart.com/nationalinstitute-science/aboutus.html
9. https://en.wikipedia.org/wiki/National_Translation_Mission
10. https://nilservices.com/translation-history/
11. https://medium.com/@adamrothman_79673/a-brief-history-of-machine-translation-8a859b4561d3
12. https://www.infoamerica.org/documentos_pdf/bar05.pdf