Comprehensive Bullet-Point Notes on Section 1.2 – Science & Technology for Society

Section 1.2 – How Science & Technology (S&T) Are for Society

• Key premise: future human progress = “S&T for society and in society.”
• Section explores present S&T status, issues, and policy directions from perspective of benefiting society.

1.2.1 Contributing to Society through Knowledge Creation & Utilization

• Scientific activity = elucidate unknown phenomena → create new knowledge → apply in real society.
• Metaphor of mountain rain:
  • Rain captured by forest ⇒ accumulation of basic scientific knowledge (intrinsic value).
  • Springs/streams split & flow ⇒ diverse R&D trajectories; generation of tech seeds.
  • River reaches farms/cities ⇒ practical technologies improving life & solving problems.
  • Insufficient forest capture ⇒ drought; analogously, lacking basic science ⇒ societal stagnation.
• Conclusion: science = foundational social strength; requires continuous, long-term build-up.

1.2.1.1 Societal Significance of Science

• Historically, technology served practical prosperity; science sprung from natural philosophy & curiosity.
• After $1850$ (chemical industry/electromagnetism) science–technology linkage intensified.
• Scientific progress reshapes society & values (space, time, nature, ethics).
• Pivotal examples:
  • $1905$ Einstein’s photon/Brownian/Relativity (altered view of space-time, philosophy).
  • Copernican heliocentrism → modern Europe.
  • Hubble $1929$ expanding universe → Big Bang (Gamow $1946$); Penzias & Wilson $1965$ cosmic microwave background.
  • Plate tectonics: Wegener $1915$ → Vine & Mathews $1960s$ evidence.
  • Life sciences: Darwin evolution; $1953$ Watson–Crick DNA double helix → molecular biology → gene recombination $1973$, Dolly clone $1996$, Human Genome sequence $2003$; impacts “sense of life/ethics.”
  • IT revolution: Turing machine, $1947$ transistor, Internet; transforms behavior via cyberspace.
  • Nanotechnology: Feynman $1959$ lecture, fullerenes $1984$; manipulation at atomic scale.
  • Television lineage: Marconi $1895$ wireless ➜ Braun tube $1897$ ➜ Yagi-Uda antenna $1925$ ➜ Takayanagi $1926$ electronic image.
• Table 1-2-2 chronicles $1901$–$2003$ footprints (Nobel prizes, inventions, socio-events).

Science Supports Modern Civilization

• Modern science originated in Western Europe yet now global; “science knows no borders.”
• Diversity of local cultures must harmonize with universal science.
• Column 1: Gauguin’s question “Where do we come from…?” answered via evolutionary timeline (life ≈ $3.8\,\text{Ga}$, industrial revolution at $11:59:58.4$ pm Dec 31).
• Nobel trends: prizewinners from Asia increased $\times14$ ( $1901$–$1945$ vs $1946$–$2003$ ).

Promotion of Basic Research (culture & civilization viewpoint)

• $\approx70\%$ Japanese agree “scientific research essential for new knowledge.”
• Natural sciences alone insufficient; need humanities & social sciences integration.

1.2.1.2 Utilization for Prosperous Society (Practical Value)

• Nobel discoveries → products after $10$–$20$ yrs (MRI, transistor, insulin, CT, monoclonal antibodies, conductive polymers, asymmetric synthesis, protein MS).
• “Science linkage” = citations per US patent; rising globally; Japan lags US/UK.
• Post-WWII Japanese growth via importing tech; future requires front-runner creation of knowledge.
• $\approx70\%$ citizens say S&T needed to boost international competitiveness.
• Creative human resources vital; creativity learned through trial-and-error.
• Industry–academia–government cooperation + IP protection critical.
• Japan must preserve traditional monozukuri skills (e.g., kumihimo enhances composites; samurai sword nanostructure ⇢ super-steel).
• Column 2: “Making Things in the Edo Period” project — museums, Toyota Collection, community engagement (restoring Kunitomo telescope, silver mine heritage).

1.2.2 New Policy Developments for “S&T for Society”

Themes: ① Safety & Security ② Local Revival ③ Intra-sector Efforts

1.2.2.1 Safety & Security

• Rising threats: terrorism ($\mathrm{9/11/2001}$; Madrid $3/11/2004$), natural disasters (Hanshin $1995$), crime ( $2.85\,\text{M}$ cases $2002$ ), emerging diseases (SARS $2002$–$2003$, H5N1 $2004$), cyber-crime.
• SARS economic loss: Hong Kong $4.0\%\,\text{GDP}$, China $0.5\%$, Taiwan $1.9\%$.
• Surveys: $\approx70\%$ Japanese feel local risks increased; $86\%$ say country less safe than $10$ yrs ago.
• $\approx70\%$ agree “high S&T standards needed for security.”

Strengthening S&T for Safe Society

1. Promote R&D targeting urgent safety problems (e.g., infectious diseases, info-security) via “Important Issue Resolution Research” (FY$2004$, $8$ projects).
2. Maintain diversity of scientific fields to flexibly counter unknown risks; build knowledge networks.
3. Foster human resources (e.g., security technologists). Current IT security shortage ≈ $1.2\times10^{5}$ people. MEXT funds $4$ university programs (Chuo, Kogakuin, Waseda, Osaka).
4. Risk communication essential; societal understanding enables cooperation.
5. Need integrated policy + tech; US model: Department of Homeland Security & HSARPA.

Societal Systems & Individual Awareness

• Example: Electronic signatures law $2001$ grants digital docs legal parity ➜ boosts e-commerce.
• Illegal access law $2000$ addresses cyber-crime (arrests trend rising).
• Virus incidents: >$20{,}000$ viruses $2003$; counter-measures list (install AV, patch OS, backups).
• Safety education: disaster manuals, life-long risk literacy.
• International cooperation (e.g., Japan-US Workshop $2004$) vital for trans-border threats.

1.2.2.2 Revival of Local Areas using S&T

• Many rural areas face aging, depopulation, de-industrialization; need to leverage unique resources & tech.
• Government “Local Revival HQ” $2003$: motto “local ideas, national support.”
• Legal basis: Science & Technology Basic Law $1995$ (Article $4$) assigns promotion duty to local govts.
• Programs:
  • Intellectual Cluster Program (R&D seeds-driven): e.g., Nagano CNF smart devices; Toyama immune cell chip.
  • Industrial Cluster Program (market-driven networks).
• Success factors (NISTEP $16$ items): proximity, risk awareness, world-class R&D, venture vitality, support infra, visionary leadership, global linkage, quality of life.
• Overseas models: Dortmund (post-steel IT cluster), Pittsburgh (post-steel biotech/IT).
• Universities as local hubs: “Special Project for Promotion of Contributions to Local Areas” (since $2002$). Example: Gunma University multicultural support, car-society health impact.

1.2.2.3 Intra-sector (Trans-disciplinary) Efforts

• Complex issues (environment, security) demand integration across natural sciences, humanities, social sciences.
• $\approx60\%$ researchers interested in trans-sector work; $79\%$ say essential for social issues.

Key Trans-sector Areas

1. Knowledge Utilization & IP
   • Basic Law on IP $2003$; IP High Court bill; education via law & MOT schools.
2. Social Technologies
   • JST Social Technology Program: missions on safety systems, recycling, brain & education.
3. Brain Science & Education
   • OECD project; US NIBIB $2001$; Japan JST initiatives.
4. Culture & Arts Interface
   • Basic Law for Culture & Arts $2001$ → content industry $>2\,\text{T yen}$; need tech for creation, preservation (nanostructure of Imari, Edo komon pattern analysis).
5. MOT Human Resources
   • Industry demands; shortage matrix shows large gaps; universities launching MOT programs.

1.2.3 Applying New Technologies to Society

Dual Impact of S&T

• Brings comfort & growth (majority agree) yet public favorability declining (poll $1998$–$2004$).
• Application needs supportive infrastructure & regulation plus issue mitigation.

Ethical, Legal & Social Implications (ELSI)

• Term covers ethics, law, societal effects; prominent in life sciences but needed across fields.
• International models: NHGRI/DOE allocate $3\text{–}5\%$ genome budget to ELSI; US Nanotech Act $2003$ mandates ELSI study; EU FP6 “Science & Society.”

Japanese Bioethics Cases

• Researcher survey: $85\%$ think ELSI study important; priority actions = awareness reform, humanities–science linkage, expert training, gov’t use of results.
• Principle: ELSI discussion should balance societal benefit & risk; respect academic freedom; consider international context.

1.2.4 Japan’s International Contribution

• Japan = world #2 GDP; aspires to lead S&T; domestic polls $>60\%$ believe Japan ahead of most countries.
• Western public expects Japan’s greater contribution in S&T (EU $\approx40\%$, US $\approx52\%$ respondents).
• Issues: Digital Divide, finite Earth → need S&T for sustainable development.
• Initiatives:
  • Johannesburg $2002$ & Evian $2003$ S&T Action Plan for sustainability.
  • Earth Observation Summit II Tokyo $2004$: $10$-yr GEOSS plan (disasters, climate, water).
  • Anti-personnel mine detection R&D (JST).
  • Science & Technology in Society (STS) Forum launched $2004$ (global policymakers & scientists dialogue).

Cooperation with Asia

• Japan’s path from Western import to innovator provides model for Asia.
• ASEAN survey: strong interest in Japanese S&T.
• Science Council of Asia (since $2001$) – $10$ nations dialogue; list of member orgs (SCJ, CAST, ICSSR, LIPI…).
• Policies: invite Asian researchers, dispatch Japanese experts, build Asian research networks, address shared issues (disasters, infectious diseases), leverage Japan’s strengths.

Cross-cutting Takeaways

• Continuous basic research underpins societal resilience; neglect → “drought.”
• Societal challenges (security, environment, aging) require integrated, trans-disciplinary, international S&T strategies.
• Public trust hinges on proactive ELSI engagement, risk communication, and visible societal benefits.
• Human capital (creative scientists, MOT managers, security technologists) = critical bottleneck; education & cluster ecosystems address it.
• Japan positions itself as S&T leader & Asian hub, championing sustainability, safety, and cultural synergy.