The Surveillance Imperative: Geosciences During the Cold War and Beyond

The Surveillance Imperative: Geosciences During the Cold War and Beyond (Introduction)

Global Reach of Surveillance Operations

• Exposure of global surveillance (Snowden) highlights advanced computing and data transfer, raising privacy concerns. This modern global reach has historical roots.

• The Cold War fundamentally transformed surveillance, linking intelligence gathering on enemies to information about Earth itself.

Science and Surveillance Intertwined

• Surveillance was a broad imperative to understand and control Earth and its inhabitants.

• Post-1945 geoscience funding dramatically expanded, enabling sophisticated surveillance networks to analyze enemy activities via environmental traces.

• Sputnik (1957) symbolized science's key role in Cold War strategies, spurring research and creating new surveillance targets. Geoscience became central to strategic planning (e.g., missile detection, nuclear test monitoring).

• This merged scientists' pursuit of knowledge with states' intelligence needs, yielding vast datasets and insights.

The Surveillance Imperative: Analytical Lens

• This volume uses the "surveillance imperative" to examine geoscience's rise, especially how it benefited from monitoring enemies beyond US borders.

Surveillance in Academia and Practice

• While surveillance often focuses on individuals, Earth sciences' "object surveillance" (e.g., coral reefs) is often deemed neutral. This volume challenges that, showing object surveillance isn't benign due to human-natural interdependence.

• Cold War intelligence ambitions were embedded in new scientific inquiry targeting Earth's features, pioneering environmental monitoring.

Cold War Surveillance and Security Dilemma

• Surveillance, especially information-gathering structures, exemplify the Cold War "security dilemma." Policymakers invested heavily in warning systems and scientific careers (e.g., seismology, oceanography).

• Global surveillance, epitomized by the IGY, included resource prospecting, reconnaissance, environmental surveys, nuclear test detection, and deep-ocean studies.

• This activity reinforced knowledge, infrastructure, and rival initiatives. Geoscience's strategic value, often driven by inter-state rivalry (e.g., Lloyd Berkner), fueled extensive research.

Beyond the National: Transnational Perspectives

• A transnational perspective shows how the surveillance imperative spurred geoscience across states, often linked by rivalry and crumbling European empires.

• US policymakers used geophysical knowledge for foreign environment control, not annexation. Globally, scientific outposts enabled covert projects, though the US scale was unrivaled.

• The US acquired classified data from allies, using geoscience data for both privileged information and collaboration, building its political/economic strength.

• International scientific events like the IGY coupled science with intelligence, with data (e.g., Soviet reports) enhancing policymaking and justifying increased Western spending.

• The US leveraged global data sharing for military advantage, and Sputnik renewed fears, channeling US funding into geosciences (e.g., NATO oceanography).

• This volume offers a nuanced Cold War understanding, beyond just nuclear deterrence.

From Science in Khaki to Science in Green?

• Surveillance fostered a view of Earth as an intricate system. "Blue marble" images (1970s) and atmospheric chemistry shifted Earth sciences from military "khaki" to "green" environmentalism.

• Paradoxically, superpower competition-driven surveillance created an image of a fragile Earth, vulnerable to human harm. Military funding led to "unprecedented scientific productivity" in Earth sciences, where strategic concerns became scientific interests (Oreskes).

• Cold War surveillance technologies are closely linked to climate modeling. While the debate continues on whether military funding "distorted" science, it undeniably led to fundamental advances (e.g., plate tectonics).

• Cold War tools were leveraged for environmental problems (e.g., satellites for defense aiding polar warming assessment). Cold War planners trained scientists who later focused on environmental monitoring and climate change (e.g., Lovelock, Johannessen).

• The "khaki-to-green" transition faced issues (e.g., "Cold Warriors" hindering climate research, infrastructure legacy). The belief in global surveillance for global intervention (geoengineering) persists.

• Satellite data for environmental charting resulted from declassification lobbying. Concerns about the surveillance state and space weaponization remain.

• Post-1970s, Cold War urgencies embraced environmental problems (e.g., NATO's Challenges of Modern Society, UNEP's GEMS, Arctic Environmental Protection Strategy).

• The surveillance imperative provided power to detect enemies and protect the planet. Technology can naturalize political decisions, so critical historical analysis of environmental monitoring is crucial, as technology is "neither good nor bad, but neither is it neutral" (Kranzberg).

• Global environmental monitoring, while promoting shared responsibility, risks obscuring rich nations' disproportionate environmental damage. The disjuncture between accepting climate data and action fuels skepticism.

• Understanding the link between geosciences and global surveillance is vital for current risk perception and decision-making.

Structure of the Volume

• Organized into five sections. Chapters highlight how surveillance priorities shaped disciplines and Earth images.

Section I: Surveillance Strategies to Control Natural Resources

• Focus: Geophysical prospecting in post-1945 European geopolitics. Oil (Chap 2) and Uranium (Chap 1) were critical. The US viewed other states' uranium efforts as a security threat.

• Demand for these resources led to new mapping methods, reinforcing Earth as a resource storehouse crucial for state planning.

Section II: Monitoring the Earth: Nuclear Weapon Programs

• Focus: Atmospheric and seismological surveillance of nuclear traces. Academic questions turned scientists into intelligence agents.

• Atmospheric radioactivity (Chap 3) led to international monitoring due to public health concerns. Nuclear program info was often concealed.

• Test ban negotiations (Chap 4) made seismic detection crucial for underground tests, coupled with secret ambitions to assess enemy expertise. Earth became a signal transmission device.

Section III: Seeing the Sea—From Above and Below

• Focus: Oceanography and sea-ice research (1950s). Geoscientists became objects of interest, IGY reinforcing open data.

• Conflicts arose between US/British naval leaders over oceanographic surveillance in the North Atlantic (Chap 5). Open data didn't mean shared visions.

• Charting Arctic sea ice was vital for North American military (Chap 6), with perceived Soviet strength making their techniques strategically important.

Section IV: Surveillance Technologies

• Focus: New technologies creating Earth images from space.

• Satellite deployment history shows surveillance drove innovation (Chap 7).

• Satellites evolved beyond espionage to environmental monitoring (Chap 8), linking to modern environmental consciousness. Earth became a fragile system through photographic evidence.

Section V: From Surveillance to Environmental Monitoring

• Focus: Connecting surveillance and environmental consciousness.

• Earth photographs from space framed perceptions of Earth as a global system (Chap 10), augmenting its fragility.

• This fueled the shift from traditional surveillance to new environmental monitoring systems and organizations like GEMS (Chap 9), an evolution from Cold War processes into the present.

Chapter 1: From the Ground Up: Uranium Surveillance and Atomic Energy in Western Europe

• Uranium was a key strategic Cold War material, with Western governments heavily investing in its global prospecting and refining, while surveilling rivals' efforts.

• Uranium exploration became a "technopolitical asset," combining innovative geology with covert intelligence, creating fields like nuclear geology and radiogeology.

• This chapter, using untapped archives, examines uranium and atomic knowledge circulation in Italy, France, and Spain, bridging previous chronological/thematic gaps.