Cities in Deep Time

Total Page:16

File Type:pdf, Size:1020Kb

Cities in Deep Time View metadata, citation and similar papers at core.ac.uk brought to you by CORE provided by Apollo City analysis of urban trends, culture, theory, policy, action ISSN: 1360-4813 (Print) 1470-3629 (Online) Journal homepage: http://www.tandfonline.com/loi/ccit20 Cities in deep time Matthew Gandy To cite this article: Matthew Gandy (2018) Cities in deep time, City, 22:1, 96-105, DOI: 10.1080/13604813.2018.1434289 To link to this article: https://doi.org/10.1080/13604813.2018.1434289 © 2018 The Author(s). Published by Informa UK Limited, trading as Taylor & Francis Group Published online: 15 Mar 2018. Submit your article to this journal Article views: 596 View related articles View Crossmark data Full Terms & Conditions of access and use can be found at http://www.tandfonline.com/action/journalInformation?journalCode=ccit20 CITY, 2018 VOL. 22, NO. 1, 96–105, https://doi.org/10.1080/13604813.2018.1434289 Cities in deep time Bio-diversity, metabolic rift, and the urban question Matthew Gandy How should we interpret the relationship between urbanization and the loss of bio-diver- sity? The discourse of bio-diversity serves as a critical lens through which the accelerating momentum of ‘metabolic rift’ can be explored in relation to contemporary mass extinction. But what is the precise role of cities within what has been referred to as the ‘sixth extinction’ facing the history of the earth? Are cities to be subsumed within a broader environmentalist critique of modernity or can they serve as the focal point for alternative cultural, political, and scientific interventions? This article suggests that the distinction between cities and broader processes of urbanization remains significant for a more critically engaged reading of the politics of the biosphere. Indeed, an overemphasis on ‘methodological global- ism’ risks obscuring the differences that matter in the articulation of alternative modernities. In particular, we consider how the relationship between cities and ‘deep time’ can be con- ceptualized as a focal point for the interpretation of global environmental change. Key words: bio-diversity, urban ecology, metabolic rift, the Anthropocene, deep time 1. Cities in the anthropocene middle decades of the twentieth century, has focused attention on a radical and poten- merging interest in the identification tially irreversible discontinuity in the socio- of a new geological epoch encom- ecological relations that have underpinned Epasses an array of critical perspectives, global modernity. putative chronologies, and alternative ter- A focus on the Anthropocene transcends minologies. The recent coalescence around the restricted political and temporal terrain the term Anthropocene, a neologism that of the ‘sustainable development’ agenda that first passed almost unnoticed in the 1980s, emerged in the 1980s by emphasizing patt- signals a profound sense that a fundamentally erns of environmental change over a much different epoch is now superseding the Holo- longer time period. The case for a new geo- cene that began some 11,700 years ago. logical periodization draws on two inter- Although the Holocene encompassed the related sets of arguments: first, the origins of agriculture and the rise of the first accelerating momentum in human induced cities, a series of more recent developments, sources of environmental change; and including the emergence of capitalism second, a neo-catastrophist interpretation of during the ‘long sixteenth century’, and the the earth’s history that emphasizes not just dramatic spike in resource use since the the scale of previous geo-environmental # 2018 The Author(s). Published by Informa UK Limited, trading as Taylor & Francis Group This is an Open Access article distributed under the terms of the Creative Commons Attribution-NonCommercial-NoDerivatives License (http://creativecommons.org/licenses/by-nc-nd/4.0/), which permits non-commercial re-use, distribution, and reproduction in any medium, provided the original work is properly cited, and is not altered, transformed, or built upon in any way. GANDY: CITIES IN DEEP TIME 97 transitions but also their rapidity. The inter- utilization, and the gradual emergence of related threats to the biosphere from bio- the ‘technosphere’ comprising ‘the sum total diversity loss, climate change, and accumulat- of all the earth’s physical infrastructure’ (see ing environmental ‘sinks’ connect with ‘deep Otter 2017, 146). Under this conceptual- time’ as a frame of reference that moves ization, which bears similarities with the ‘pla- beyond the conventional scope of historical netary urbanization’ thesis, cities are simply a analysis to engage with forms of radical historically and geographically specific mani- discontinuity. festation of a broader set of processes and A key contention of the Anthropocene is interdependencies (see Brenner 2014). that we are now entering a sixth mass extinc- Several different starting points have been tion event in which human survival is ren- suggested for the Anthropocene including dered uncertain (see, for example, Ceballos, the megafauna extinctions, the emergence Ehrlich, and Dirzo 2017; Kolbert 2014; of agriculture, the discovery of the New Lovejoy 2012). Under previous mass extinc- World, the proto capitalist realm of seven- tions, of which five have now been recog- teenth-century Holland, the switch from nized, over 90 per cent of all life forms were water to steam power in late eighteenth wiped out. During the third mass extinction century England, the ‘mercurial signature’ of the mid-Permian period, for instance, within the global food chain, radioactive some 260 million years ago, warming temp- traces left by the detonation of the first eratures released vast quantities of hydrogen nuclear weapons, and more recently, the sulphide from dead bacteria, turning the extraction of rare earths under the transition oceans purple, and releasing poisonous to digital capitalism. Cities hold a growing bubbles of gas into ‘a pale green sky’ presence within this panoply of historical (Zimmer cited in Kolbert 2014, 104). These developments as centres for trade, consump- imaginary accounts of past environmental tion, and the coordination of wider pro- dystopias located in deep time serve to cesses of state formation. Indeed, the emphasize the ephemeral and fragile nature growth of cities has even been referred to of the ecological relations that have under- as a potential ‘golden spike’ within the pinned the possibilities for life let alone the future stratigraphic record marked by a dis- intricate forms of socio-ecological interde- tinctive me´lange of burrowings and material pendence that have allowed human capacities traces (see Davies 2015). to flourish under modernity. The more incisive literature on the Anthro- Our understanding of environmental tran- pocene has sought to link causality with sitions in the modern era needs to be tem- periodicity. The first use of steam power in pered by evidence of past waves of human 1784, for example, serves as a convenient modification of the biosphere. Even the ear- marker within a broad history of increasing liest hunter-gatherer cultures emerging in human impact on the biosphere. The switch the Pleistocene epoch, over two hundred from water to steam power increased the thousand years ago, had an extensive environ- mobility of capital and enabled the transfer mental impact through the use of fire to of production from predominantly rural modify natural environments, along with areas to fast growing industrial towns such the hunting of megafauna in which perhaps as Birmingham and Manchester (see Kunkel two-thirds of large mammal species were 2017; Malm 2016). Furthermore, the creation lost (see, for example, Broswimmer 2014). of large pools of (surplus) labor tilted the Subsequent episodes of environmental trans- balance of power in favor of capital and formation during the Holocene have involved freed production from the constraints of a steady expansion of the ‘human niche’ into nature, location, and potential labor existing ecosystems, marked by the rise of shortages. The concomitant reliance on agriculture, new patterns of resource fossil fuels also dramatically expanded the 98 CITY VOL. 22, NO.1 potential scope, scale, and mobility of indust- political context (for a classic exposition of rial production adding further impetus to this argument see Tafuri 1987). In this sense capitalist urbanization. the urban becomes a space of multiple possi- It would be misleading, however, to argue bilities driven not just by the logic of capital that capitalism and urbanization are fully but emerging from a series of socio- synonymous even though the built environ- ecological, technological, and ideological ment, and the secondary circuit of capital, entanglements. What forms of agency, has played a key role within the expansionary materiality, or imagination can co-exist or dynamics of global capital. As Ernest Mandel even flourish in spite of the functionalist has pointed out, following Lefebvre, the pro- imperative of capitalist urbanization? What blematic dimensions to urbanization are an kinds of alternative socio-ecological or tech- outcome of the structural and political nological pathways might serve as intima- characteristics of capital rather than inherent tions of a different future? features of the modern city: From a somewhat different perspective these ambivalent dimensions to urbanization ‘The blatant deformation of urban have also been considered within the bur- development since the industrial
Recommended publications
  • Astro2020 Science White Paper Solar System Deep Time-Surveys Of
    Astro2020 Science White Paper Solar system Deep Time-Surveys of atmospheres, surfaces, and rings Thematic Areas: Planetary Systems Star and Planet Formation Formation and Evolution of Compact Objects Cosmology and Fundamental Physics Stars and Stellar Evolution Resolved Stellar Populations and their Environments Galaxy Evolution Multi-Messenger Astronomy and Astrophysics Principal Author: Name: Michael H. Wong Email: [email protected] Institution: UC Berkeley Phone: 510-224-3411 Co-authors: (names and institutions) Richard Cartwright (SETI Institute) Nancy Chanover (NMSU) Kunio Sayanagi (Hampton University) Thomas Greathouse (SwRI) Matthew Tiscareno (SETI Institute) Rohini Giles (SwRI) Glenn Orton (JPL) David Trilling (Northern Arizona Univeristy) James Sinclair (JPL) Noemi Pinilla-Alonso (Florida Space Institute, UCF) Michael Lucas (UT Knoxville) Eric Gaidos (University of Hawaii) Bryan Holler (STScI) Stephanie Milam (NASA GSFC) Angel Otarola (TMT) Amy Simon (NASA GSFC) Katherine de Kleer (Caltech) Conor Nixon (NASA GSFC) PatricK Fry (Univ. Wisconsin) Máté Ádámkovics (Clemson Univ.) Statia H. LuszcZ-Cook (AMNH) Amanda Hendrix (PSI) Abstract: Imaging and resolved spectroscopy reveal varying environmental conditions in our dynamic solar system. Many key advances have focused on how these conditions change over time. Observatory- level commitments to conduct annual observations of solar system bodies would establish a long- term legacy chronicling the evolution of dynamic planetary atmospheres, surfaces, and rings. Science investigations will use these temporal datasets to address potential biosignatures, circulation and evolution of atmospheres from the edge of the habitable zone to the ice giants, orbital dynamics and planetary seismology with ring systems, exchange between components in the planetary system, and the migration and processing of volatiles on icy bodies, including Ocean Worlds.
    [Show full text]
  • Victorian Popular Science and Deep Time in “The Golden Key”
    “Down the Winding Stair”: Victorian Popular Science and Deep Time in “The Golden Key” Geoffrey Reiter t is sometimes tempting to call George MacDonald’s fantasies “timeless”I and leave it at that. Such is certainly the case with MacDonald’s mystical fairy tale “The Golden Key.” Much of the criticism pertaining to this work has focused on its more “timeless” elements, such as its intrinsic literary quality or its philosophical and theological underpinnings. And these elements are not only important, they truly are the most fundamental elements needed for a full understanding of “The Golden Key.” But it is also important to remember that MacDonald did not write in a vacuum, that he was in fact interested in and engaged with many of the pressing issues of his day. At heart always a preacher, MacDonald could not help but interact with these issues, not only in his more openly didactic realistic novels, but even in his “timeless” fantasies. In the Victorian period, an era of discovery and exploration, the natural sciences were beginning to come into their own as distinct and valuable sources of knowledge. John Pridmore, examining MacDonald’s view of nature, suggests that MacDonald saw it as serving a function parallel to the fairy tale or fantastic story; it may be interpreted from the perspective of Christian theism, though such an interpretation is not necessary (7). Björn Sundmark similarly argues that in his works “MacDonald does not contradict science, nor does he press a theistic interpretation onto his readers” (13). David L. Neuhouser has concluded more assertively that while MacDonald was certainly no advocate of scientific pursuits for their own sake, he believed science could be of interest when examined under the aegis of a loving God (10).
    [Show full text]
  • Arxiv:1601.03132V7 [Math.HO] 15 Nov 2018 [2]
    Solution of the Mayan Calendar Enigma Thomas Chanier1∗ 1Independent researcher, 1025 12th avenue, Coralville, Iowa 52241, USA The Mayan calendar is proposed to derive from an arithmetical model of naked-eye astronomy. The Palenque and Copan lunar equations, used during the Maya Classic period (200 to 900 AD) are solution of the model and the results are expressed as a function of the Xultun numbers, four enigmatic Long Count numbers deciphered in the Maya ruins of Xultun, dating from the IX century AD, providing strong arguments in favor of the use of the model by the Maya. The different Mayan Calendar cycles can be derived from this model and the position of the Calendar Round at the mythical date of creation 13(0).0.0.0.0 4 Ahau 8 Cumku is calculated. This study shows the high proficiency of Mayan mathematics as applied to astronomy and timekeeping for divinatory purposes.a I. INTRODUCTION In the Calendar Round, a date is represented by αXβY with the religious month 1 ≤ α ≤ 13, X one of the 20 Mayan priests-astronomers were known for their astro- religious days, the civil day 0 ≤ β ≤ 19, and Y one of the nomical and mathematical proficiency, as demonstrated 18 civil months, 0 ≤ β ≤ 4 for the Uayeb. Fig. 1 shows a in the Dresden Codex, a XIV century AD bark-paper contemporary representation of the Calendar Round as book containing accurate astronomical almanacs aiming a set of three interlocking wheels: the Tzolk'in, formed to correlate ritual practices with astronomical observa- by a 13-month and a 20-day wheels and the Haab'.
    [Show full text]
  • Imagining Deep Time
    IMAGINING DEEP TIME IMAGINING EXHIBITION ORGANIZED BY CULTURAL PROGRAMS OF THE NATIONAL AcADEMY OF SCIENCES CURATED BY JD TALASEK NATIONAL AcADEMY OF SCIENCES DEEP TIME WEST GALLERY 2101 CONSTITUTION AVE, NW, WASHINGTON, DC AUGUST 28, 2014 THROUGH JANUARY 15, 2015 IMAGINING THE UNIMAGINABLE: DEEP TIME THROUGH THE LENS OF ART “Geohistory is the immensely long and complex history of the CONSTRUCTING DEEP TIME the king’s nose to the tip of his outstretched hand. One of its vastness through the use of metaphor.[5] Analogies earth, including the life on its surface (biohistory), as distinct stroke of a nail file on his middle finger erases human like McPhee’s fingernail of the king and Twain’s Eiffel Tow- from the extremely brief recent history that can be based on Philosophy, religion, physics, mathematics, astronomy and history.” When we confront the notion of deep time, we er appear throughout literature in an attempt to convey human records.” other areas of human inquiry have attempted to crack the intuit that our limited time on earth isn’t significant either. meaning in terms of human experience. The practice of Martin J.S. Rudwick, historian of science mysteries of time. As we see, for example, in Bursting the Mark Twain put it in perspective when he wrote, “If the using metaphor is essential to the work of artists as well Limits of Time: The Reconstruction of Geohistory in the Age of Eiffel Tower were now representing the world’s age, the and it is worth considering how meaning is constructed “…the mind seemed to grow giddy by looking so far into the Revolution by Martin J.S.
    [Show full text]
  • It's About Time: Opportunities & Challenges for U.S
    I t’s About Time: Opportunities & Challenges for U.S. Geochronology About Time: Opportunities & Challenges for t’s It’s About Time: Opportunities & Challenges for U.S. Geochronology 222508_Cover_r1.indd 1 2/23/15 6:11 PM A view of the Bowen River valley, demonstrating the dramatic scenery and glacial imprint found in Fiordland National Park, New Zealand. Recent innovations in geochronology have quantified how such landscapes developed through time; Shuster et al., 2011. Photo taken Cover photo: The Grand Canyon, recording nearly two billion years of Earth history (photo courtesy of Dr. Scott Chandler) from near the summit of Sheerdown Peak (looking north); by J. Sanders. 222508_Cover.indd 2 2/21/15 8:41 AM DEEP TIME is what separates geology from all other sciences. This report presents recommendations for improving how we measure time (geochronometry) and use it to understand a broad range of Earth processes (geochronology). 222508_Text.indd 3 2/21/15 8:42 AM FRONT MATTER Written by: T. M. Harrison, S. L. Baldwin, M. Caffee, G. E. Gehrels, B. Schoene, D. L. Shuster, and B. S. Singer Reviews and other commentary provided by: S. A. Bowring, P. Copeland, R. L. Edwards, K. A. Farley, and K. V. Hodges This report is drawn from the presentations and discussions held at a workshop prior to the V.M. Goldschmidt in Sacramento, California (June 7, 2014), a discussion at the 14th International Thermochronology Conference in Chamonix, France (September 9, 2014), and a Town Hall meeting at the Geological Society of America Annual Meeting in Vancouver, Canada (October 21, 2014) This report was provided to representatives of the National Science Foundation, the U.S.
    [Show full text]
  • The Geological Revolution: Deep Time and the Age of the Earth
    Lecture 6: The Geological Revolution: Deep Time and the Age of the Earth Astronomy 141 – Winter 2012 This lecture explores the geological revolution that revealed the antiquity of the Earth. Understanding the age of the Earth requires having a conception of a beginning for the Earth. Historical and Physical age estimates give different answers. Geological discoveries uncovered the deep history of the Earth, and developed techniques for reading that history. The Earth is 4.54 ± 0.05 Billion Years old, measured by radiometric age dating of meteorites, the oldest Earth rocks, and Moon rocks. In order for “what is the age of the Earth?” to make sense, you must conceive of a beginning. Two ways people have conceived of time: Cyclical Time: Earth has no beginning or end, only repeated cycles of birth, death, and rebirth/renewal. Linear Time: Earth has a past beginning & will have a future end. On human scales, time appears to be cyclical Natural cycles around us: Cycle of day & night Monthly cycle of moon phases Yearly cycle of the seasons Generational cycle of birth, life, and death... Examples: Hinduism & Buddhism posit cyclical time Plato’s 72,000 year cycle: 36,000 Golden Age followed by a 36,000 age of disorder & chaos. Linear Time posits a definite beginning in the past, and an eventual ending in the future. Judaism provides an example of linear time: Past divine creation of the Earth (Genesis) Promised end of times. Christianity & Islam adopted this idea: See history as fulfillment, not growth. No change in the world, except decay from past perfection (“fall from grace”).
    [Show full text]
  • Terminology of Geological Time: Establishment of a Community Standard
    Terminology of geological time: Establishment of a community standard Marie-Pierre Aubry1, John A. Van Couvering2, Nicholas Christie-Blick3, Ed Landing4, Brian R. Pratt5, Donald E. Owen6 and Ismael Ferrusquía-Villafranca7 1Department of Earth and Planetary Sciences, Rutgers University, Piscataway NJ 08854, USA; email: [email protected] 2Micropaleontology Press, New York, NY 10001, USA email: [email protected] 3Department of Earth and Environmental Sciences and Lamont-Doherty Earth Observatory of Columbia University, Palisades NY 10964, USA email: [email protected] 4New York State Museum, Madison Avenue, Albany NY 12230, USA email: [email protected] 5Department of Geological Sciences, University of Saskatchewan, Saskatoon SK7N 5E2, Canada; email: [email protected] 6Department of Earth and Space Sciences, Lamar University, Beaumont TX 77710 USA email: [email protected] 7Universidad Nacional Autónomo de México, Instituto de Geologia, México DF email: [email protected] ABSTRACT: It has been recommended that geological time be described in a single set of terms and according to metric or SI (“Système International d’Unités”) standards, to ensure “worldwide unification of measurement”. While any effort to improve communication in sci- entific research and writing is to be encouraged, we are also concerned that fundamental differences between date and duration, in the way that our profession expresses geological time, would be lost in such an oversimplified terminology. In addition, no precise value for ‘year’ in the SI base unit of second has been accepted by the international bodies. Under any circumstances, however, it remains the fact that geologi- cal dates – as points in time – are not relevant to the SI.
    [Show full text]
  • Dating and Chronology Building - R
    ARCHAEOLOGY – Dating and Chronology Building - R. E. Taylor DATING AND CHRONOLOGY BUILDING R. E. Taylor University of California, USA Keywords: Dating methods, chronometric dating, seriation, stratigraphy, geochronology, radiocarbon dating, potassium-argon/argon-argon dating, Pleistocene, Quaternary. Contents 1. Chronological Frameworks 1.1 Relative and Chronometric Time 1.2 History and Prehistory 2. Chronology in Archaeology 2.1 Historical Development 2.2 Geochronological Units 3. Chronology Building 3.1 Development of Historic Chronologies 3.2 Development of Prehistoric Chronologies 3.3 Stratigraphy 3.4 Seriation 4. Chronometric Dating Methods 4.1 Radiocarbon 4.2 Potassium-argon and Argon-argon Dating 4.3 Dendrochronology 4.4 Archaeomagnetic Dating 4.5 Obsidian Hydration Acknowledgments Glossary Bibliography Biographical Sketch Summary One of the purposes of archaeological research is the examination of the evolution of human cultures.UNESCO Since a fundamental defini– tionEOLSS of evolution is “change over time,” chronology is a fundamental archaeological parameter. Archaeology shares with a number of otherSAMPLE sciences concerned with temporally CHAPTERS mediated phenomenon the need to view its data within an accurate chronological framework. For archaeology, such a requirement needs to be met if any meaningful understanding of evolutionary processes is to be inferred from the physical residue of past human behavior. 1. Chronological Frameworks Chronology orders the sequential relationship of physical events by associating these events with some type of time scale. Depending on the phenomenon for which temporal placement is required, it is helpful to distinguish different types of time scales. ©Encyclopedia of Life Support Systems (EOLSS) ARCHAEOLOGY – Dating and Chronology Building - R. E. Taylor Geochronological (geological) time scales temporally relates physical structures of the Earth’s solid surface and buried features, documenting the 4.5–5.0 billion year history of the planet.
    [Show full text]
  • Periodization
    Preprint of ISKO Encyclopedia of Knowledge Organization article at https://www.isko.org/cyclo/periodization. Periodization Ryan Shaw Table of contents 1. Introduction 2. The emergence of a scholarly discourse on periodization 3. Diversifying criteria for individuating periods 4. Periodization as a form of historiographical theorizing 5. Institutionalization of periodizations 6. Arguments against periodization 7. Periodization in KOS 8. Conclusion Endnotes References Abstract This article first focuses on the emergence of a scholarly discourse on periodization. That discourse includes historians' efforts to diversify criteria for individuating periods, and philosophers' analyses of periodization as a form of historiographical theorizing. Next the article turns to the dynamic interaction between scholarly periodization and the broader institutionalization of periodizations. This is followed by a brief review of arguments against periodization. The article ends with a look at how periodizations are treated in knowledge organization systems (KOS). 1. Introduction Periodization is the division of time in order to describe it. The historian Marc Bloch (1953, 28) observed that because time is both a continuum and a process of perpetual change, any description of time must emphasize continuity at some points and difference at others. It is these emphases of continuity and difference that respectively develop into periods and the boundaries between them. A period groups together points in time under a unifying concept or continuous process, and it highlights differences between these points and those not included in the period. Periodization is a form of classification: it is the process of distinguishing and distributing time into different phases. Much of the scholarly discourse on periodization focuses on the periodization of human history.
    [Show full text]
  • The Significance of Geologic Time: Cultural, Educational, and Economic Frameworks
    View metadata, citation and similar papers at core.ac.uk brought to you by CORE provided by Digital Repository @ Iowa State University Geological and Atmospheric Sciences Publications Geological and Atmospheric Sciences 2012 The iS gnificance of Geologic Time: Cultural, Educational, and Economic Frameworks Cinzia Cervato Iowa State University, [email protected] Robert Frodeman University of North Texas Follow this and additional works at: http://lib.dr.iastate.edu/ge_at_pubs Part of the Geology Commons The ompc lete bibliographic information for this item can be found at http://lib.dr.iastate.edu/ ge_at_pubs/16. For information on how to cite this item, please visit http://lib.dr.iastate.edu/ howtocite.html. This Article is brought to you for free and open access by the Geological and Atmospheric Sciences at Digital Repository @ Iowa State University. It has been accepted for inclusion in Geological and Atmospheric Sciences Publications by an authorized administrator of Digital Repository @ Iowa State University. For more information, please contact [email protected]. This is a manuscript of an article from Geological Society of America Special Papers 486, (2012): 19, 10.1130/2012.2486(03). Posted with permission. The Significance of Geologic Time: Cultural, Educational, and Economic Frameworks Cinzia Cervato1 and Robert Frodeman2 1 Department of Geological and Atmospheric Sciences, Iowa State University, Ames, IA 50011, USA, [email protected], Phone: (515)2947583, Fax: (515)2946049 2 Department of Philosophy and Religion Studies, University of North Texas, Denton, TX 76203, USA, [email protected], Phone: (940)565-2266, Fax: (940)5654448 Abstract The discovery of geologic time revolutionized scientific thinking and led to the development of the modern Earth sciences.
    [Show full text]
  • The Discovery of Deep Time Sketches of Geologic Development
    Theories of the Earth The Discovery of Deep Time Sketches of Geologic Development The descriptions and biographies below accompany the two page flow chart titled “Theories of the Earth”. They flesh out the positions and personages and their role in the discovery of the Earth’s history. They are listed in the order of class discussion. Myth of the Eternal Return: The notion that the world has no beginning, and no end C The notion that the universe is eternal and time is cyclical, with events repeating over and over again - like the beating of a heart, the waxing and waning of the Moon, the cycling of the seasons. The Babylonians developed a cosmic model based on periodicities of the planets in which each Great Year lasts 424,000 years; in the ‘summer’, when all the planets congregate in the constellation Cancer, there is a great fire, and the ‘winter’, marked by a gathering in Capricorn, is greeted by a great flood.. In a cyclical universe it was impossible even to frame the question of an age of the Earth - for it hadn’t a beginning. C “The Myth of the Eternal Return” was formulated by Mircea Eliade in 1974: This is the earliest and most important of Eliade's books on comparative religions. He traces through the many scripts and dogmas of the world's official and unofficial (i.e., primitive) religions the myth of the eternal return. C From Mesopotamia mythology: "But Ishtar is all this and more. She is the reborn. .. Know, O Prince, that death is the source of life, life is the cause of death.
    [Show full text]
  • Earthrise, Big History, & Deep Time the Rev. Dr. J. Carl Gregg 20
    Earthrise, Big History, & Deep Time The Rev. Dr. J. Carl Gregg 20 October 2019 frederickuu.org I. Big History The English writer H. G. Wells (1866-1946) is best remembered for his science fiction novels—The Time Machine (1895), The Island of Doctor Moreau (1896), The Invisible Man (1897), and The War of the Worlds (1898). Wells was also a futurist, and his books “foresaw the advent of aircraft, tanks, space travel, nuclear weapons, satellite television and something resembling the World Wide Web.” In response to the horrors of the first World War, Wells similarly attempted to peer into the future: There can be no peace now, we realize, but a common peace in all the world; no prosperity but a general prosperity. But there can be no common peace and prosperity without common historical ideas…. With nothing but narrow, selfish, and conflicting nationalist traditions… people are bound to drift towards conflict and destruction. (Christian viii) The historian David Christian is one of the best examples I know of someone attempting to take on the project that Wells called for, of cultivating common historical ideas for the whole human race. Dr. Christian was trained at Oxford, and since the 1980s, he has been developing a perspective he calls Big History, which “frames human history in terms of cosmic, geological, and biological history.” He is the director of Macquarie 1 of 6 University’s Big History Institute, and is the cofounder, along with Bill Gates, of the Big History Project, which has built a free online high-school syllabus on big history.
    [Show full text]