On the Trajectories of Planetary Civilizations: Asymptotic Burnout vs. Homeostatic Awakening. Wong, M. L. & Bartlett, S. Volume ALIFE 2022: The 2022 Conference on Artificial Lifeof ALIFE 2022: The 2022 Conference on Artificial Life07, 2022. 8
On the Trajectories of Planetary Civilizations: Asymptotic Burnout vs. Homeostatic Awakening [link]Paper  doi  abstract   bibtex   
Previous studies show that city metrics having to do with growth, productivity, and overall energy consumption scale superlinearly, attributing this to the social nature of cities. Superlinear scaling results in crises called “singularities,” where population and energy demand tend to infinity in a finite amount of time, which must be avoided by ever more frequent “resets” or innovations that postpone the system’s collapse. Here, we place the emergence of cities and technological civilizations in the context of major evolutionary transitions. With this perspective, we hypothesize that once a planetary civilization transitions into a state that can be described as one virtually connected global city, it will face an “asymptotic burnout,” an ultimate crisis where the singularity-interval timescale becomes smaller than the timescale of innovation. If a civilization develops the capability to understand its own trajectory, it will have a window of time to affect a fundamental change to prioritize long-term homeostasis and well-being over unyielding growth—a consciously induced trajectory change or “homeostatic awakening.” We propose a new resolution to the Fermi paradox: civilizations either collapse from burnout or redirect themselves to prioritizing homeostasis, a state where cosmic expansion is no longer a goal, making them difficult to detect remotely.
@proceedings{wong22_trajec_planet_civil,
  author =	 {Wong, Michael L. and Bartlett, Stuart},
  title =	 "{On the Trajectories of Planetary Civilizations:
                  Asymptotic Burnout vs. Homeostatic Awakening}",
  volume =	 {ALIFE 2022: The 2022 Conference on Artificial Life},
  series =	 {ALIFE 2022: The 2022 Conference on Artificial Life},
  year =	 2022,
  month =	 07,
  abstract =	 "{Previous studies show that city metrics having to
                  do with growth, productivity, and overall energy
                  consumption scale superlinearly, attributing this to
                  the social nature of cities. Superlinear scaling
                  results in crises called “singularities,” where
                  population and energy demand tend to infinity in a
                  finite amount of time, which must be avoided by ever
                  more frequent “resets” or innovations that postpone
                  the system’s collapse. Here, we place the emergence
                  of cities and technological civilizations in the
                  context of major evolutionary transitions. With this
                  perspective, we hypothesize that once a planetary
                  civilization transitions into a state that can be
                  described as one virtually connected global city, it
                  will face an “asymptotic burnout,” an ultimate
                  crisis where the singularity-interval timescale
                  becomes smaller than the timescale of innovation. If
                  a civilization develops the capability to understand
                  its own trajectory, it will have a window of time to
                  affect a fundamental change to prioritize long-term
                  homeostasis and well-being over unyielding growth—a
                  consciously induced trajectory change or
                  “homeostatic awakening.” We propose a new resolution
                  to the Fermi paradox: civilizations either collapse
                  from burnout or redirect themselves to prioritizing
                  homeostasis, a state where cosmic expansion is no
                  longer a goal, making them difficult to detect
                  remotely.}",
  doi =		 {10.1162/isal_a_00485},
  url =		 {https://doi.org/10.1162/isal\_a\_00485},
  note =	 8,
  eprint =
                  {https://direct.mit.edu/isal/proceedings-pdf/isal/34/8/2035361/isal\_a\_00485.pdf},
}

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