Section 1: Introduction to the Scientific Community

Chapter 2: The Scientific Community (Bridgstock)

James Clerk Maxwell’s Question

• "What's the go of it? What's the particular go of it?"
  — James Clerk Maxwell, Physicist
• Chapter Goal: To understand the global scientific community not as a collection of dry statistics, but through its organization, motivations, and operational dynamics—its "particular go."
• The Core Lesson: Science is not a single unified endeavor; it is split into distinct sectors, each driven by vastly different values, rewards, and constraints.

Merton’s Normative Ethos vs. Modern Reality

• In 1942, sociologist Robert K. Merton proposed that science is a self-regulating, autonomous community bound by a distinctive ethos:
  • CUDOS Norms: Communism (sharing info), Universalism, Disinterestedness, and Organized Skepticism.
• The Modern Critique: Merton’s view is an idealized "public morality" rather than a description of daily practice.
• The Modern Structure: Rather than a single autonomous community, science is split into three highly institutionalized sectors:
  1. Academic Science (Universities)
  2. Industrial/Business Science (Corporations)
  3. Government Science (State Laboratories)

Visualizing R&D Funding & Flow

• Research and Development (R&D) is a massive, capital-intensive endeavor.
• The Flow of R&D Capital (using Australian STS data):
  • Sources of Funds: Roughly split half-and-half between Business and Government (Commonwealth/State).
  • Where R&D is Executed:
  • Business Sector: Uses its own funds (~40% of national R&D).
  • Government Agencies: (e.g., CSIRO) Executed in state labs (~20%).
  • Higher Education: Done in universities (~25%), funded almost entirely by government.
• Takeaway: Because science is expensive, its direction is constantly steered by the entities holding the purse strings.

Section 2: Academic Science — The "Publish or Perish" Crucible

The Academic Paradigm & The Paper Paradox

• Academic Science is defined by its setting: universities and higher education institutions.
• The Paradox of the Scientific Paper:
  • Academic scientists spend years in training, invest months in painstaking experiments, and draft papers in highly technical language.
  • Yet, when they publish in prestigious peer-refereed journals (Nature, Science), they are not paid a single cent.
  • In fact, they are often charged page fees by the journals to publish!
• Why do they do it? Career currency. Publication is the sole key to employment, tenure, and promotion.

"Publish or Perish" in Practice

• The Standard Rule: "Produce original papers in refereed journals, or you are eliminated from the system."
• The MIT Professor's Ultimate Litmus Test:
  • Question: "What happens if a young lecturer is good at teaching, but no good at research?"
  • Answer: "He goes."
  • Question: "And what happens if he's good at research, but no good at teaching?"
  • Answer: "He stays."
• Consequences for Undergraduates: Undergraduate students rarely interact with the "research front." Instead, they study "established knowledge, packed down and condensed into textbooks."

Academic Rewards: Fame and Citations

• If money is not the reward, what is?
  • Tangible/Intangible Honors: The Nobel Prize (the pinnacle of a career), prestigious medals (e.g., the Garfield Medal), and admission into National Academies of Science.
  • The Citation Economy: References are taken with absolute seriousness. A citation ("...using the method of Jones...") is an academic's receipt of credit, directly enabling promotion and funding.
• The "Cycle of Credibility" (Arie Rip, 1994):
  • A scientist must use their credibility to generate money, to generate still more papers, keeping the cycle spinning.

Consequences of "Publish or Perish"

1. Scientific Races: Because credit only goes to the first to publish, scientists race intensely.

• Example: Francis Crick and James Watson’s frantic race in Cambridge to solve the structure of DNA before Linus Pauling could do so in the US.

2. Informal Networks: Journal publication is slow (often taking a year to referee). Scientists rely on "pre-print" networks, conferences, and digital platforms to stay up-to-date.
3. The Temptation to Cut Corners: The pressure to survive can lead to scientific misconduct, honorary authorship (adding names of professors who did no work), and even outright fabrication.

Task 1: The "Publish or Perish" Career Audit

• Active Student Task
• The Scenario: You are the University Tenure & Promotion Committee. You have one remaining tenured professor slot. Evaluate these two candidates:
  • Candidate A: Exceptional educator, loved by students, handles heavy teaching loads, but has only published 1 paper in five years.
  • Candidate B: Demanding researcher, rarely available to students, cancels classes for conferences, but has published 12 refereed papers and secured $500k in grants.
• Your Task:
  1. In groups of 3, debate who gets the tenured slot, citing the MIT Professor's Litmus Test and the Cycle of Credibility.
  2. Identify at least one systemic danger this poses to undergraduate education.

Section 3: Industrial R&D — Secrecy, Management, & Applied Solutions

The Scale of Business Science

• Business R&D is the engine room of modern technology.

• In developed countries (like South Korea, Japan, and Switzerland), over 70% of R&D is funded by the business sector.

• The Core Objective: Unlike academia's search for "knowledge for its own sake," industrial R&D exists solely to improve the firm's economic position (via better products or cheaper production).

• Table: Purpose of R&D in Australia (Example of Sector Bias):

  Socio-Economic Objective	Non-Business Sectors	Business Sector
  Advancement of Knowledge	$666.9 Million	$0.00
  Economic Development	$1,383.3 Million	$2,039.0 Million

What is Special About Industrial R&D?

1. Corporate Secrecy: Open publication is strictly forbidden. Corporations enforce Non-Disclosure Agreements (NDAs) to prevent proprietary findings from leaking to competitors.
2. Patents vs. Trade Secrets: Instead of publishing, firms lodge patents to establish discovery rights, or avoid patenting entirely to keep the details of fast-moving tech a complete "trade secret."
3. Management Control: Management dictates the parameters. Scientists are moved from project to project as commercial needs shift.

• Example: Tracey Kidder's The Soul of a New Machine (1982), documenting intense managerial pressure on hardware engineers to produce a new 32-bit processor.

Preventing Stagnation: How Industrial Knowledge Circulates

• If industrial science is shrouded in secrecy, why doesn't knowledge stagnate in isolated pools?
  1. The Technological Gatekeeper (T.J. Allen, 1977): Senior researchers within industrial firms who read academic journals, maintain external contacts, and translate/circulate non-secret info within their firm.
  2. Reverse Engineering: Buying a competitor's product, taking it apart piece-by-piece, and analyzing its design to copy or improve upon it.
  3. The Mobility of People: Scientists voluntarily or involuntarily switch jobs, carrying mental libraries of techniques, processes, and skills with them to new employers.

Are Industrial Scientists Chronically Frustrated?

• The 1960s Theory: Industrial scientists must be miserable because they cannot pursue their own intellectual curiosities and are bound by managers.
• The Cotgrove & Box Study (1970) debunked this myth, finding three types of science graduates:
  1. Public Scientists: Driven by expanding knowledge for its own sake and publishing openly. They overwhelmingly choose academia.
  2. Private Scientists: Enjoy solving complex scientific and technical puzzles, but have no desire to publish. They find satisfaction in private solutions and thrive in industry.
  3. Organisation Scientists: View science simply as a respectable, well-paying career. They easily shift to management or other roles.

Task 2: Public, Private, or Organisation Scientist?

• Active Student Task
• A Quick Self-Diagnostic: Reflect on your own career goals. Which statement describes you best?
  • A: "I want to make a major discovery, write papers, and have my work read and cited by scientists worldwide." (Public)
  • B: "I love the thrill of solving complex technical problems, seeing my designs built, and I don't care if my name is on a paper." (Private)
  • C: "Science is a fascinating subject and a stable, high-paying career path, but I'm happy to move into business or management." (Organisation)
• Your Task:
  1. Pair up with a classmate and share your classification.
  2. Discuss: Why is it critical for hiring managers in industry to identify "Private" or "Organisation" scientists rather than "Public" ones?

Section 4: Government Science — Public Goods & Market Failure

Why Do Governments Perform R&D?

• If universities do basic research, and corporations do applied R&D, why does the government need its own laboratories (like the CSIRO)?
• The answer rests on two foundational economic concepts:
  1. Market Failure: When a piece of R&D is highly expensive and risky, but the eventual commercial benefits are too widely dispersed for any single firm to recover its costs. The free market fails to invest, so the state must.
  2. Public Goods: Crucial societal resources that are non-excludable (you cannot stop non-payers from enjoying them) and non-rival (one person's use doesn't deplete it).

The Domain of Public Goods & National Interests

• Examples of Public Goods requiring Government Science:
  • Environmental Labs: Monitoring clean air, clean rivers, and noise pollution.
  • Food Laboratories: Ensuring clean, untainted food and standardizing public safety.
  • Weights and Measures Labs: Regulating standards (e.g., standardizing the kilogram or the litre) so consumers get what they expect.
• Political & National Interests:
  • Example: Why does the Australian government spend millions supporting scientific bases in Antarctica?
  • The Political Reality: Antarctica is not a commercial market, but under the Antarctic Treaty, maintaining a territorial claim requires active, high-order scientific research.

Section 5: Cross-Cutting Themes: Science, War, & The Changing World

Science and Warfare

• Science policy and state funding were permanently transformed by the massive mobilization of scientists during 20th-century conflicts.
• Key Historical Intersections:
  • World War I: The rapid deployment of chemical countermeasures (e.g., Fritz Haber's gas warfare) proved to governments that science was vital for survival.
  • World War II: The mobilization of scientists to build Radar (which doubled the effective strength of the RAF) and the Manhattan Project (constructing the atomic bomb).
  • The Cold War Arms Race: In the 1970s, it was estimated that nearly half of all scientists in the world were involved in military-aligned R&D.
• Modern Military R&D Budgets: High variability remains. The US directs 59% of its government R&D spending to military goals, and the UK 42.5%, while Australia spends almost nothing.

• The Reality: While academia is merging with business, academic science remains unique because its criteria are abnormally deep, thorough, and detached from immediate business interests.

Task 3: Funding the Future

• Active Student Task
• The Challenge: Your group is the National Science Advisory Board. You must allocate resources to the following three R&D proposals. Identify which sector (Academic, Industrial, or Government) should execute each project and justify your choice using Market Failure or Public Goods:
  1. Project A: Investigating whether a newly discovered deep-sea bacterium has the basic genetic capacity to digest microplastics.
  2. Project B: Developing a highly standardized, country-wide calibration network for domestic hydrogen gas meters to prevent household leaks.
  3. Project C: Designing a proprietary software algorithm that optimizes warehouse inventory sorting times for a multinational retail giant.
• Deliverable: One speaker from your group will present your sector-allocation map to the class.