Science Communication in Regional Languages - Study Notes

Overview

• The article discusses why science communication in regional languages is essential in today’s world where science and technology affect every aspect of daily life (products of robotics, medicines, etc.).
• Key challenges highlighted include pandemics (COVID-19), vector-borne diseases (malaria, dengue, chikungunya), climate change, natural disasters, and AI–driven advances. Effective public engagement in science is necessary to address social problems and ensure inclusive progress.
• The central thesis: communicating science in regional languages leads to inclusive, culturally relevant, and locally actionable information, supporting broader scientific literacy and participation.
• Political leadership statements emphasize language as a facilitator, not a barrier to science communication.
• The piece links science communication to cultural and historical contexts, including biblical, linguistic, and regional histories, and argues for a democratic, global, and multidisciplinary approach.

The Need for Regional Language Science Communication

• Science and technology influence everyday life: robots, vehicles, medicines, etc.
• Public engagement with science helps solve social problems by linking science to society.
• Regional-language science communication would lead to inclusive, culturally relevant information benefiting national progress.
• In $2018$, PM Narendra Modi stated that science should be communicated in regional languages to develop a love of science among youth, asserting that language should be a facilitator, not a barrier.
• In $2021$, Vice President M. Venkaiah Naidu emphasized:
  • need for better science communication in regional languages to reach people in their mother tongue;
  • aim to inculcate scientific temper.
    -Advancements like AI should be communicated more inclusively and democratically; scientists should engage closer to people through a concept akin to Scientific Social Responsibility (SSR).
• The discussion frames regional-language communication as a means to bridge science and society, increasing accessibility and participation.

"In $January ext{ }2018$, the Hon'ble Prime Minister of India, Shri Narendra Modi, declared that science should be communicated in regional languages in a big way to develop a love of science in the youth. He stressed that language should not be a barrier; it should be a facilitator."

Historical and Conceptual Context: Babel, Language, and Scientific Language

• Going Back in Biblical Times (Tower of Babel):
  • After the great flood, Noah’s descendants spoke a common language in Shinar (modern‑day Iraq).
  • They built a great tower to reach the heavens; God confused their language to prevent pride and rebellion, scattering people across Earth.
  • The Babel narrative explains the origin of linguistic and cultural diversity and serves as a metaphor for potential miscommunication in science.
  • Translation: Babel means confusion in Hebrew.
  • Implication for science communication: without a common language, collaboration can stall due to misunderstandings.
• Lingua Franca—The Universal Language of Science
  • English became the global lingua franca of science post-World War II as scientific leadership aligned with English-speaking powers.
  • Michael Gordin argues that English emerged as the global lingua franca in $1967$.
  • This compelled multidisciplinary publication primarily in English.
  • According to the SIL International Ethnologue, there are $6909$ languages spoken worldwide.
  • Despite English dominance, about $80\%$ of science journals are in English and indexed in SCOPUS.
  • Even as English became dominant, a significant amount of global research was still published in other languages (e.g., in the Soviet era during the early space race, research appeared in native languages such as Russian).
  • Sputnik 1, launched by the USSR on $4 ext{ October }1957$, exemplifies a nation that communicated science in its native language.
• Science in Regional Languages: Historical Variation
  • Greek and Latin were prominent in Medieval/Renaissance science; much early scientific terminology has Greek/Latin roots.
  • Vernacular languages played a role in the roots of scientific knowledge; Latin waned in everyday science but vernaculars persisted.
  • Many countries—Russia, Spain, France, Germany, Japan, Arabic-speaking regions, China, and others—have historically communicated science in their native languages.
  • In ancient India, Sanskrit was a language of science; mathematical concepts (e.g., the concept of zero) were described in Brahmi numerals written in Sanskrit.
  • In modern India, the multilingual landscape (Marathi, Gujarati, Malayalam, etc.) often creates barriers to scientific awareness due to language diversity.
• Contemporary Tension
  • Using a single global language (English) helps access global literature but creates barriers for non-English speakers and risks excluding large populations from scientific knowledge.
  • Lack of access to scientific information in regional languages can lead to a disconnect between advancements and local communities, limiting participation in science-related dialogues and decisions.

Benefits of Science in Local Languages and Local Knowledge Integration

• Democratisation of knowledge
  • Translating and communicating science in local languages enables more people to participate in science activities, contribute insights, and apply scientific solutions to local problems.
  • Science becomes a collective human endeavour that transcends linguistic boundaries.
• Cultural relevance and trust
  • Explaining scientific concepts with local values, traditions, and experiences improves understanding and engagement.
  • Local language communication can resonate with indigenous knowledge systems, boosting participation and motivation.
• Local problem-solving and decision-making
  • Regionalized science communication helps address local issues in health, agriculture, environment, climate adaptation, and policy decisions.
  • Example: translating climate science for farmers to guide seeding and harvesting decisions.
• Translation as empowerment
  • Translating global knowledge into regional languages bridges the gap between global scientific knowledge and local audiences, enabling informed decisions.
• Statement in the text
  • "Science in local languages democratises knowledge by allowing individuals to participate in science activities, contribute their insights and apply scientific solutions to local challenges."
• Educational and societal implications
  • Local language science communication fosters scientific literacy across diverse education levels, contributing to a more literate society.

Challenges in Communicating Science in Regional Languages

• Access and trust gaps
  • The complexity of technical terms and jargon hinders comprehension in regional languages.
  • Need for clearer, jargon-free language and effective visuals to engage audiences.
• Translation and resource gaps
  • Translating scientific terms accurately without diluting scientific integrity is difficult.
  • Shortage of high-quality science communication resources in regional languages.
• Rapid information growth
  • A digital age overload leads to information deluge; distinguishing valid science from myths and misinformation (e.g., via WhatsApp) is challenging.
• Interdisciplinary jargon
  • Increased specialization creates field-specific language that is hard to translate across disciplines.
  • Lack of a shared global lingua franca across all scientific fields can hinder interdisciplinary collaboration.
• Cultural and social biases
  • Stigma around regional languages in higher education and science; English is often seen as the language of science, which can discourage language diversity.

Ongoing Efforts to Promote Science Communication in Regional Languages (India)

• The multi-stakeholder approach: scientists, communicators, teachers, students, government and NGOs
• Core strategies and initiatives: 1) Print media
  • Local newspapers, science magazines, journals publish scientific information and regular science columns.
  • Radio and Doordarshan (Doordarshan) provide regional science programming, especially for rural populations.
    2) Translation and simplification of research findings
  • Translating research into simple language and translating popular science books to inspire students and reach non-English speakers.
  • National Translation Mission aims to translate academic books/resources into Indian languages.
    3) Regional-language textbooks
  • NEP 2020 emphasizes local-language textbooks for early education to build a solid scientific foundation.
    4) [Content not fully shown in excerpt; inferred emphasis on accessibility and outreach]
    5) [Content not fully shown in excerpt; inferred emphasis on outreach and collaboration]
    6) Science outreach in regional languages
  • Museums, planetaria, science exhibitions, fairs, and festivals in regional media as friendly venues; local citizen science projects engage people across regions in their own language.
    7) Government and NGO involvement
  • Various Indian states’ bodies work to communicate science in regional languages.
    8) Reflection and dialogue
  • Science communicators, teachers, journalists, scientists discuss day-to-day science, innovations, environmental science, agriculture, climate change, pandemic preparedness, and myth debunking in native languages.
• Additional methods and practices:
  • Use of puppetry, street plays, storytelling, poetry and other cultural forms to explain complex scientific ideas.
  • Digital platforms: YouTube channels, mobile apps, podcasts; locally produced science websites in languages such as Hindi, Marathi, Kannada, Malayalam, etc.; live streaming for real-time engagement.
  • Digital and traditional media integration with local culture to enhance accessibility and relevance.
  • Museums, science festivals, exhibitions as community hubs for science learning.
  • Local citizen science to democratize research and knowledge production.
• Training and capacity building
  • Training programs and workshops for science journalists, scientists, teachers, and communicators to teach science to broad audiences in native languages.
  • Emphasis on open-access resources and digital tools to support regional-language dissemination.
• Impactful demonstrations
  • The COVID-19 pandemic and Chandrayaan-3 coverage were cited as successful examples of science communication across regional languages, reaching diverse segments of society.
• Broader messages
  • Science should not be confined to one country, state, or region; regional-language communication can bridge gaps between knowledge and local communities.
  • Integration of digital platforms, traditional media, local culture, and science education in the local language can raise scientific literacy.
• Important policy/ethical reference
  • The concept of Scientific Social Responsibility (SSR) proposed as a complement to Corporate Social Responsibility (CSR), encouraging scientists to engage with the public and disseminate knowledge responsibly.

Quotes and Core Assertions

• Quote 1: "Science should not be confined to one country, state or region. Science communication in regional languages can bridge the gap between scientific knowledge and local communities."
• Quote 2: "Science in local languages democratises knowledge by allowing individuals to participate in science activities, contribute their insights and apply scientific solutions to local challenges."
• Conceptual takeaway: regional-language science communication is not merely translation; it is empowerment, inclusion, and culturally resonant education.

Educational Trivia: Two Categories of Science Communication

• Category A: Teaching science to children (education-focused) in vernacular languages
  • Emphasizes the importance of mother tongue for understanding basic scientific concepts and word meanings.
  • Highlights that vernacular medium schools exist in India; yet, some shifts to English in secondary education complicate conceptual clarity when students translate concepts into English.
• Category B: Communicating science to the general public (societal relevance)
  • Aims to help people understand the role of science in daily life; reduce fear or mystification of science.
  • Encourages citizen science participation to benefit society.
• Key observation: People outside the scientific community often do not follow science news; native-language communication can help them see science as real and applicable rather than magical or mythical.

Implications: Ethical, Philosophical, and Practical Considerations

• Equity and inclusion: regional-language science communication helps reduce language-based disparities in access to knowledge.
• Cultural integrity: integrating local knowledge and languages respects cultural diversity while expanding scientific literacy.
• Practicality and integrity: translation must preserve scientific rigor; simplification should not distort concepts.
• Democratic access to information: inclusive communication supports informed citizenry and policy participation.
• SSR (Scientific Social Responsibility): scientists bear responsibility to engage with society and communicate science clearly and responsibly in local languages.

The Way Forward: Synthesis and Recommendations

• Multilingual and multimodal dissemination should combine digital tools (mobile apps, podcasts, YouTube), traditional media (print, radio, TV), and in-person activities (museums, fairs, outreach programs).
• Translation and localization should be prioritized to translate not just terms but concepts and methodologies into regional languages.
• Policy alignment with NEP 2020 and SSR principles to encourage inclusive science communication and capacity-building.
• Training pipelines for science journalists, teachers, and communicators to develop regionally relevant content.
• Encourage citizen science and local problem-focused projects to leverage regional knowledge and language for practical solutions (health, agriculture, environment, climate resilience).
• Leverage flagship events and contemporary science stories (e.g., COVID-19, Chandrayaan-3) to demonstrate the effectiveness of regional-language communication.

Author and Context

• Dr. Parul R. Sheth is a Mumbai-based biochemist, freelance science writer, and a science communicator associated with the National Centre for Science Communicators (NCSC).
• Email: parulrsheth@gmail.com
• Publication context: Science Reporter, February 2025 issue (Vol. 14, pages 14–18), with content focused on science communication in regional languages.

Key Dates and Figures (for quick reference in study prep)

• $2018$: Modi’s statement on communicating science in regional languages to develop youth interest; language should be a facilitator (not a barrier).
• $2021$: Naidu’s emphasis on mother-tongue science communication and SSR as a democratic, inclusive approach.
• $1967$: Michael Gordin’s claim that English became the global lingua franca of science.
• $6909$ languages: Globally spoken languages as per Ethnologue.
• $80\%$: Share of science journals published in English and indexed in SCOPUS.
• $4\ text{ October }1957$: Launch of Sputnik 1 by the Soviet Union, illustrating native-language science communication in Russia.
• World War II window: $1\text{ September }1939\text{ -- }2\text{ September }1945$ (context for historical language dynamics in science).

Closing Note

• The article advocates for a holistic, inclusive, and culturally grounded approach to science communication, arguing that regional-language dissemination is essential for building a scientifically literate and participatory society. It ties historical, linguistic, educational, and policy threads into a coherent case for regional-language science outreach as a national priority.