Bones of the Earth

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Bones of the Earth
BonesOfTheEarth.jpg
Cover of first edition (hardcover)
Author Michael Swanwick
Cover artistJoe DeVito
CountryUnited States
LanguageEnglish
Genre Science fiction, paleontology novel
PublisherEos (HarperCollins)
Publication date
2002
Media typePrint (hardback & paperback)
Pages335 (1st edition)
ISBN 0-380-97836-9 (1st edition)
OCLC 47056437
813/.54 21
LC Class PS3569.W28 B66 2002

Bones of the Earth is a 2002 science fiction novel by Michael Swanwick. It was nominated for the Nebula Award for Best Novel in 2002, and the Hugo, [1] Campbell, and Locus Awards in 2003. [2]

Contents

Plot introduction

Expanded from his Hugo Award-winning story "Scherzo with Tyrannosaur", Bones of the Earth spans geologic time, not just centuries but millennia, from the prehistoric past to the distant and unknown future. Most of the novel's events take place in the age of the dinosaurs. The "bones" of the title refer to the time traveling team players described in the story that study throughout Earth's history and prehistory.

Plot summary

Paleontologist Richard Leyster has reached the pinnacle of his profession: a position with the Smithsonian Museum plus a groundbreaking dinosaur fossil site he can research, publish on, and learn from for years to come. There is nothing that could lure him away – until a disturbingly secretive stranger named Harry Griffin enters Leyster's office with an ice cooler and a job offer.

In the cooler is the head of a freshly killed stegosaurus. Griffin has been entrusted with an extraordinary gift; an impossible technology on loan to humanity for an undisclosed purpose from beings known to a select few as the Unchanging. The only stipulation is: not to alter recorded history. If the taboo is broken, the contract becomes null and void.

Time travel has become a reality millions of years before it rationally could be. With it, Richard Leyster and his colleagues make their most cherished fantasies come true. They study dinosaurs up close, in their own time and environment. Also, individual lives have the freedom to turn back on themselves. People meet, shake hands, and converse with their younger or older versions at various crossroads in time. One wrong word, a single misguided act, could be disastrous to the project and to the world. Griffin's job is to make sure everything that is supposed to happen does happen, no matter who is destined to be hurt – or die.

And then there is Dr. Gertrude Salley – arrogant, fearless, and brutally ambitious – a genius rebel in the tight community of "bone men" and women. Alternately, both Leyster's and Griffin's chief rival, trusted colleague, despised nemesis, and inscrutable lover at various junctures throughout time, Salley is relentlessly driven to tamper with the working mechanisms of natural law, audaciously trespassing in forbidden areas, pushing paradox to the edge no matter what the consequences may be. And, when they concern the largest, most savage creatures that ever lived, the consequences become terrifying indeed, resulting in a team of "bone men" becoming stranded for two years in the Mesozoic Era.

Apart from failed attempts to rescue the team from the past, slowly, something begins to happen. The temporal mechanics are altered in such a way that two time streams emerge. The first focuses on the struggling team in the Mesozoic's Maastrichtian Age, some 65 million years ago. In the far future, in what will be known as the Telezoic Era, a younger version of Gertrude Salley meets an older version of herself – the one who was responsible for the split in the timeline – now unhappily living in the center of the new supercontinent of Ultima Pangea. There, they also finally meet the mysterious benefactors who are actually an evolved avian species that inherited the Earth upon the extinction of the human race.

Preparing to beg the evolved avians not to shut down the whole enterprise of time travel and the sciences based upon it, Gertrude also discovers their apparent fascination with humanity and that their gift of time travel was simply a means to study the human race in their own right. She also realizes the difficulty in the ability of the incomprehensible far-future species to forgive, for incomprehensible reasons, the creation of a deeply dangerous timeline anomaly back in the 21st century. However, the team trapped in the Maastrichtian Age makes a remarkable discovery.

One of the team members arrives at a genuinely unique explanation for the Cretaceous–Paleogene extinction event. They had already determined that predator dinosaurs farm and ranch their prey, singing infrasound commands that lead their ultimate prey to green pastures. One of the team speculated that dinosaur migration might be similarly controlled by the song of the Earth, the song of tectonic plates shifting in the crust of the planet. And the possibility of the Chicxulub impactor having been so great as to detune the song of the Earth for a decade or a century, deafening the dinosaurs so they could not migrate, causing them to starve.

In the end, the evolved avians decide to retroactively remove the time travel science from human hands, thereby rendering all of the events up to that point irrelevant. But, out of the ashes of this paradox, its tangles and attenuations mercifully forgotten, a love of the world is retained – a deep unselfish love of learning the world and all its creatures.

Related Research Articles

Cenozoic Third era of the Phanerozoic Eon (66 million years ago to present)

The Cenozoic is Earth's current geological era, representing the last 66 million years of Earth's history. It is characterized by the dominance of mammals, birds and flowering plants, a cooling and drying climate, and the current configuration of continents. It is the latest of three geological eras since complex life evolved, preceded by the Mesozoic and Paleozoic. It started with the Cretaceous–Paleogene extinction event, when many species, including the non-avian dinosaurs, became extinct in an event attributed by most experts to the impact of a large asteroid or other celestial body, the Chicxulub impactor.

Dinosaur Clade of sauropsid vertebrates that dominated the Mesozoic Era (including birds)

Dinosaurs are a diverse group of reptiles of the clade Dinosauria. They first appeared during the Triassic period, between 243 and 233.23 million years ago (mya), although the exact origin and timing of the evolution of dinosaurs is the subject of active research. They became the dominant terrestrial vertebrates after the Triassic–Jurassic extinction event 201.3 mya; their dominance continued throughout the Jurassic and Cretaceous periods. The fossil record shows that birds are feathered dinosaurs, having evolved from earlier theropods during the Late Jurassic epoch, and are the only dinosaur lineage known to have survived the Cretaceous–Paleogene extinction event approximately 66 mya. Dinosaurs can therefore be divided into avian dinosaurs, or birds; and the extinct non-avian dinosaurs, which are all dinosaurs other than birds.

The Mesozoic Era, also called the Age of Reptiles and the Age of Conifers, is the second-to-last era of Earth's geological history, lasting from about 252 to 66 million years ago and comprising the Triassic, Jurassic and Cretaceous Periods. It is characterized by the dominance of archosaurian reptiles, like the dinosaurs; an abundance of conifers and ferns; a hot greenhouse climate; and the tectonic break-up of Pangaea. The Mesozoic is the middle of three eras since complex life evolved: the Paleozoic, the Mesozoic, and the Cenozoic.

Phanerozoic Fourth and current eon of the geological timescale

The Phanerozoic Eon is the current geologic eon in the geologic time scale, and the one during which abundant animal and plant life has existed. It covers 538.8 million years to the present, and it began with the Cambrian Period when animals first developed hard shells preserved in the fossil record. The time before the Phanerozoic, called the Precambrian, is now divided into the Hadean, Archaean and Proterozoic eons.

Theropoda Clade of dinosaurs

Theropoda, whose members are known as theropods, is a dinosaur clade that is characterized by hollow bones and three-toed limbs. Theropods are generally classed as a group of saurischian dinosaurs. They were ancestrally carnivorous, although a number of theropod groups evolved to become herbivores, omnivores, piscivores, and insectivores. Theropods first appeared during the Carnian age of the late Triassic period 231.4 million years ago (Ma) and included all the large terrestrial carnivores from the Early Jurassic until at least the close of the Cretaceous, about 66 Ma. In the Jurassic, birds evolved from small specialized coelurosaurian theropods, and are today represented by about 10,500 living species.

The Late Cretaceous is the younger of two epochs into which the Cretaceous Period is divided in the geologic time scale. Rock strata from this epoch form the Upper Cretaceous Series. The Cretaceous is named after the white limestone known as chalk, which occurs widely in northern France and is seen in the white cliffs of south-eastern England, and which dates from this time.

Pseudoextinction

Pseudoextinction of a species occurs when all members of the species are extinct, but members of a daughter species remain alive. The term pseudoextinction refers to the evolution of a species into a new form, with the resultant disappearance of the ancestral form. Pseudoextinction results in the relationship between ancestor and descendant still existing even though the ancestor species no longer exists.

<i>The New Dinosaurs</i> Book by Dougal Dixon

The New Dinosaurs: An Alternative Evolution is a 1988 speculative evolution book written by Scottish geologist Dougal Dixon and illustrated by several illustrators including Amanda Barlow, Peter Barrett, John Butler, Jeane Colville, Anthony Duke, Andy Farmer, Lee Gibbons, Steve Holden, Philip Hood, Martin Knowelden, Sean Milne, Denys Ovenden and Joyce Tuhill. The book also features a foreword by Desmond Morris. The New Dinosaurs explores a hypothetical alternate Earth, complete with animals and ecosystems, where the Cretaceous-Paleogene extinction event never occurred, leaving non-avian dinosaurs and other Mesozoic animals an additional 65 million years to evolve and adapt over the course of the Cenozoic to the present day.

Maastrichtian Sixth and last age of the Late Cretaceous

The Maastrichtian is, in the ICS geologic timescale, the latest age of the Late Cretaceous Epoch or Upper Cretaceous Series, the Cretaceous Period or System, and of the Mesozoic Era or Erathem. It spanned the interval from 72.1 to 66 million years ago. The Maastrichtian was preceded by the Campanian and succeeded by the Danian.

Evolution of birds Derivation of birds from a dinosaur precursor, and the adaptive radiation of bird species

The evolution of birds began in the Jurassic Period, with the earliest birds derived from a clade of theropod dinosaurs named Paraves. Birds are categorized as a biological class, Aves. For more than a century, the small theropod dinosaur Archaeopteryx lithographica from the Late Jurassic period was considered to have been the earliest bird. Modern phylogenies place birds in the dinosaur clade Theropoda. According to the current consensus, Aves and a sister group, the order Crocodilia, together are the sole living members of an unranked reptile clade, the Archosauria. Four distinct lineages of bird survived the Cretaceous–Paleogene extinction event 66 million years ago, giving rise to ostriches and relatives (Paleognathae), ducks and relatives (Anseriformes), ground-living fowl (Galliformes), and "modern birds" (Neoaves).

<i>Palaeosaniwa</i> Extinct genus of lizards

Palaeosaniwa canadensis is an extinct species of carnivorous lizard from the late Cretaceous of North America. The name, given by Charles Whitney Gilmore in 1928, means "ancient Saniwa from Canada".

<i>Cimolopteryx</i> Extinct genus of birds

Cimolopteryx is a prehistoric bird genus from the Late Cretaceous Period. It is currently thought to contain only a single species, Cimolopteryx rara. The only specimen confidently attributed to C. rara was found in the Lance Formation of Wyoming, dating to the end of the Maastrichtian age, which ended about 66 million years ago. The dubious species "Cimolopteryx" maxima has been described from both the Lance Formation and the Hell Creek Formation of Montana. The humeral end of a left coracoid from the Frenchman Formation of southern Saskatchewan has also been attributed to the genus.

<i>Albertonykus</i> Extinct genus of dinosaurs

Albertonykus is an alvarezsaurid dinosaur from the Maastrichtian-age rocks of the Horseshoe Canyon Formation of Alberta, Canada. It is known from forelimb and hindlimb remains from multiple individuals. All but two of the specimens come from a bonebed dominated by Albertosaurus, located at the top of Unit 4 of the Horseshoe Canyon Formation, dating to ~68.5 million years ago.

<i>Austroraptor</i> Genus of theropod dinosaurs

Austroraptor is a genus of dromaeosaurid theropod dinosaur that lived during the Late Cretaceous Period in what is now Argentina. Austroraptor was a medium-sized, moderately-built, ground-dwelling, bipedal carnivore. It is one of the largest dromaeosaurids known, with only Achillobator, Dakotaraptor, and Utahraptor approaching or surpassing it in length.

Jurassic Museum of Asturias

The Jurassic Museum of Asturias is located in the area of Rasa de San Telmo near the parish of Llastres in the municipality of Colunga, Asturias, Spain. Though the municipality of Ribadesella was initially proposed, Colunga was chosen for the building site in the late 1990s. Several landmarks are visible from the museum including the Bay of Biscay, the Sierra del Sueve, and the Picos de Europa. Strategically located over a mount on the Rasa de San Temo, the museum is in the midst the Jurassic Asturias.

The climate across the Cretaceous–Paleogene boundary is very important to geologic time as it marks a catastrophic global extinction event. Numerous theories have been proposed as to why this extinction event happened including an asteroid known as the Chicxulub asteroid, volcanism, or sea level changes. While the mass extinction is well documented, there is much debate about the immediate and long-term climatic and environmental changes caused by the event. The terrestrial climates at this time are poorly known, which limits the understanding of environmentally driven changes in biodiversity that occurred before the Chicxulub crater impact. Oxygen isotopes across the K–T boundary suggest that oceanic temperatures fluctuated in the Late Cretaceous and through the boundary itself. Carbon isotope measurements of benthic foraminifera at the K–T boundary suggest rapid, repeated fluctuations in oceanic productivity in the 3 million years before the final extinction, and that productivity and ocean circulation ended abruptly for at least tens of thousands of years just after the boundary, indicating devastation of terrestrial and marine ecosystems. Some researchers suggest that climate change is the main connection between the impact and the extinction. The impact perturbed the climate system with long-term effects that were much worse than the immediate, direct consequences of the impact.

<i>Changyuraptor</i> Extinct genus of dinosaurs

Changyuraptor is a genus of "four-winged", predatory dinosaurs. It is known from a single fossil specimen representing the species Changyuraptor yangi, which was discovered from Early Cretaceous deposits in Liaoning Province, China. C. yangi belongs to the group of dromaeosaurid theropod dinosaurs called the Microraptoria.

Cretaceous–Paleogene extinction event Mass extinction event about 66 million years ago

The Cretaceous–Paleogene (K–Pg) extinction event was a sudden mass extinction of three-quarters of the plant and animal species on Earth, approximately 66 million years ago. With the exception of some ectothermic species such as sea turtles and crocodilians, no tetrapods weighing more than 25 kilograms survived. It marked the end of the Cretaceous Period, and with it the Mesozoic era, while heralding the beginning of the Cenozoic era, which continues to this day.

Biogeography of paravian dinosaurs Geographic distribution of paravian dinosaurs

The biogeography of Paravian dinosaurs is the study of the global distribution of Paraves through geological history. Paraves is a clade that includes all of the Theropoda that are more closely related to birds than to oviraptorosaurs. These include Dromaeosauridae and Troodontidae and Avialae. The distribution of paraves is closely related to the evolution of the clade. Understanding the changes in their distributions may shed light on problems like how and why paraves evolve, eventually gaining the ability to fly.

<i>Asteriornis</i> Fossil bird genus from Belgium

Asteriornis is an extinct genus of bird from the Late Cretaceous of Belgium which is known from a single species, Asteriornis maastrichtensis. It was closely related to birds of the extant superorder Galloanserae such as chickens and ducks. Members of the genus were small, long-legged birds that lived near the coastline and co-existed with more "primitive" types of birds such as Ichthyornis. Asteriornis is one of the oldest-known birds irrefutably belonging to the group Neornithes, which encompasses all modern birds. It possesses characteristics of both galliformes and anseriformes, indicating its position as a close relative of the last common ancestor for both groups.

References

  1. "2002 Award Winners & Nominees". Worlds Without End. Retrieved 2009-08-05.
  2. "2003 Award Winners & Nominees". Worlds Without End. Retrieved 2009-08-05.