This piece explores the concept of "slow projects"—endeavors that can only be solved or completed over exceptionally long periods, often spanning decades, centuries, or even millennia. Drawing a distinction from "fast projects," it compiles a list of real-world examples ranging from scientific experiments and data collection efforts (e.g., the E. coli long-term evolution experiment, Framingham Heart Study, Cape Grim Air Archive) to architectural marvels (e.g., Cathedrals like Notre Dame and Sagrada Familia), foundational mathematical proofs (Fermat's Last Theorem), and enduring technological standards (Linux, TCP/IP).
The accompanying discussion delves into whether these projects are inherently slow or merely prolonged by external factors like bureaucracy and funding. It examines the societal implications of long-term thinking, contrasting it with short-term incentives, and debates the philosophical value of such generational undertakings, touching on themes of legacy, institutional knowledge, and the nature of human progress. The consensus acknowledges the unique challenges and profound significance of projects that transcend individual lifetimes.
Summarizing "Slow" Projects and Their Implications:
Defining "Slow" Projects: The discussion centers on goal-directed human projects that necessitate exceptionally long periods—decades, centuries, or even millennia—for their completion or ongoing existence. This excludes more decentralized societal evolutions like languages or city development, focusing instead on purposeful, long-term endeavors.
Architectural Marvels: Many cathedrals, such as Notre Dame (1163-1345) and the ongoing Sagrada Familia (begun 1882), exemplify projects spanning multiple generations, often by design or necessity due to resource and technological limitations of their time.
Long-Term Scientific Endeavors: Examples include the Framingham Heart Study (begun 1948), the Central England Temperature series (since 1659), the E. coli long-term evolution experiment (since 1988), and the pitch drop experiment (since 1927). These highlight the need for extensive data collection over time to observe natural processes or conduct longitudinal studies.
Fundamental Mathematical & Scientific Breakthroughs: Fermat's Last Theorem, taking centuries of mathematical development, and the LIGO gravitational wave detector, which required decades from design (1967) to first detection (2016) due to extreme accuracy requirements, demonstrate problems that intrinsically demand long-term intellectual and technological evolution.
Enduring Institutions and Technologies: Projects like the Clock of the Long Now, aspiring to last 10,000 years, and key open-source systems (e.g., Linux, Wikipedia) are cited as potentially enduring for centuries or millennia, raising questions about the longevity of standards like Unix Time or TCP/IP.
Debate on Intentional vs. Inefficient Slowness: A recurring theme is distinguishing projects that must take a long time (e.g., observational science) from those that are needlessly slow due to bureaucratic inertia, political incompetence, funding issues, or scope creep (e.g., the 2nd Ave Subway in Manhattan, begun 1942, first phase 2017).
Societal Values and Future-Thinking: The concept prompts reflection on a society's willingness to invest in multi-generational projects, often contrasted with a perceived modern short-termism. The famous quote, "A society grows great when old men plant trees in whose shade they know they shall never sit," encapsulates this long-term vision.
Institutional Knowledge and Maintenance: Comments highlight the importance of maintaining institutional knowledge and culture over extended periods for such projects to succeed, citing examples like Oxford's woodland management for future timber needs or Japanese temples rebuilt periodically to preserve craftsmanship.
The Nature of Progress: The discussion touches on whether true progress comes from rapid "fast projects" or from the cumulative, slow accumulation of knowledge and capability over generations, with suggestions that fundamental breakthroughs (e.g., General Relativity, AI) are inherently multi-century endeavors.
Additional Examples from Discussion: Further examples include the cosmic distance ladder (centuries of astronomy), the Art of Computer Programming (60+ years ongoing), the Svalbard Global Seed Vault, the Voyager probes, bonsai cultivation, and the Crazy Horse Memorial, all illustrating diverse forms of long-term human commitment.