Morphodynamics

Morphodynamics

Morphodynamics

Morphodynamics

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Overview

Morphodynamics is defined as the unique interaction among environment, functional morphology, developmental constraints, phylogeny, and time—all of which shape the evolution of life. These fabricational patterns and similarities owe their regularity not to a detailed genetic program, but to extrinsic factors, which may be mechanical, chemical, or biological in nature. These self-organizing mechanisms are the focus of Morphodynamics.

Illustrated by numerous examples from across the biological spectrum, this book embodies the foundation of noted paleontologist Adolf Seilacher’s thinking on the study of morphodynamics. It represents his unique approach of presenting paleontology from an ecological and constructional perspective, rather than a purely taxonomic one.

The hallmark of Seilacher’s storied career has been a constructional and functional focus. He begins by discussing the basic principles—form, pattern formation, ecology and evolution, as well as the factors that override those processes. Next, he examines how morphodynamic principles are implemented in various invertebrates including single-celled protists, Ediacarans, sponges, coelenterates, shelled organisms, worms, arthropods, and echinoderms.

The final chapter explores how morphogenetic principles may apply to clonal colonial organisms. Summarizing seventy years of research into the interactions of form, function, and evolution, the book is copiously illustrated with the author’s own distinctive drawings and an abundance of photos. It provides a framework for readers to pose their own questions and sharpen their interpretive skills on this fascinating topic.


Product Details

ISBN-13: 9780367658960
Publisher: CRC Press
Publication date: 03/30/2021
Pages: 551
Product dimensions: 7.00(w) x 10.00(h) x (d)

About the Author

Professor Adolf Seilacher was one of the most influential paleontologists of the latter half of the 20th century. With a career spanning more than seventy years, he published his first paper in paleontology in 1943 while serving in the German Navy. After the war, he studied in Tübingen under Freiderich von Huene and Otto H. Schindewolf. In the course of his studies of paleontology and evolution, he travelled the world in search of fossils and fossil localities in order to understand the interactions of organisms (both extinct and extant) and their environment. He taught in Frankfurt, Baghdad, Göttingen, Baltimore, at the University of Tübingen and at Yale University. In 1992, the Swedish academy of Science awarded him the Crafoord Prize, established for scientific disciplines not originally eligible for the Nobel Prize. He was perhaps the world authority on trace fossils and constructional morphology, a field of study he pioneered in the 1970s along with architect Frei Otto. He is also known for work in biostratinomy, the study of exceptional fossil preservation and his iconoclastic interpretation of the Ediacaran biota.

Alan D. Gishlick first met Adolf Seilacher in 1995 as a graduate student at Yale University after completing his undergraduate degree at Augustana College in Illinois. He became interested in Seilacher’s iconoclastic thinking as well as his unique presentation and illustration. Dr. Gishlick has worked for the National Center for Science Education in Oakland, California defending the teaching of evolution in public schools and working to improve the public understanding of science. Subsequently, he has taught at Gustavus Adolphus College in Minnesota; University of Wisconsin-Eau Claire; New York Institute of Technology; and Bloomsburg University of Pennsylvania. He started working with Seilacher on the Morphodynamics project in 2009 and, like many others over the years, got "Dolf’d".

Table of Contents

A Note from Adolf Seilacher xi

A Note from Alan D. Gishlick xiii

Acknowledgments xv

Foreword Derek Briggs xvii

Preface xix

Introduction: Principles of Morphodynamics 1

Chapter 1 Fabricational Noise in Body Shapes 10

1.1 The Concept of Morphodynamics 12

1.2 Coiled Cone Morphospace: Simulations 14

1.3 Morphogenetic Countdowns 16

1.4 Deformation of the Generating Curve 18

1.5 Morphologies Induced by Mobile Partners 20

Chapter 2 Other Fabricational Morphospaces 24

2.1 Frilled Margins 26

2.2 Expanding Balloons 28

2.3 Tiled Balloons 30

2.4 Lace Structures 32

2.5 Remote Mineralization 34

Chapter 3 Bifurcating and Intercalating Patterns 38

3.1 Dendritic Patterns 40

3.2 Leaf Venations 42

3.3 Insect Wing Patterns 44

3.4 Intercalational Hierarchy and Enslavement 46

3.5 Pattern Repair 48

Chapter 4 Other Patterns 52

4.1 Mineralized Fold Patterns 54

4.2 Zebra Patterns 56

4.3 Divaricate Patterns in Bivalves 58

4.4 Divaricate Burrowing Ribs I 60

4.5 Divaricate Burrowing Ribs II 62

Chapter 5 Lifestyles 67

5.1 Ecologie Guilds of Marine Invertebrates 70

5.2 Paleozoic Soft-bottom Brachiopods 74

5.3 Patellaemorphs 76

5.4 Horn-shaped Passive Implanters and Rolling Harvesters 78

Chapter 6 Patterns of Evolution Versus Counter Evolution 81

6.1 The Cambrian Ecologic Revolution and Golden Ages 84

6.2 Golden Ages II and III 86

6.3 Golden Biotope: Deep Sea 88

6.4 Golden Nailbed: Beach Sand I 90

6.5 Beach Sand II 92

Chapter 7 Taphonomy 97

7.1 Taphonomic Concept and Burial Processes 100

7.2 Shell Stratinomy 102

7.3 Postmortem Deformations 104

7.4 Diagenetic Overprints 106

7.5 Storm Taphonomy 110

7.6 Selective Preservation in Jurassic Lagerstätten 112

Chapter 8 Protists 118

8.1 Flagellate Brick Making 120

8.2 Siliceous Lace Capsules I 122

8.3 Siliceous Lace Capsules II: Radiolaria 124

8.4 Scaling in Larger Foraminifera 126

8.5 Xenophyophora 128

Chapter 9 Vendobionts: Lost Life Forms of Ediacaran Times 133

9.1 Vendobiont Disparity 136

9.2 Vendobiont Construction 138

9.3 Overmat Community, Mistaken Point 140

9.4 Ediacaran Snapshots 142

9.5 Vendobionta Underground 144

Chapter 10 Sponges 151

10.1 Sand Sponges 152

10.2 Silurian Soft-bottom Sponges 154

10.3 Chemung Sponges 156

10.4 Chambered Sponges 158

10.5 Soft-bottom Strategies 160

10.6 Sponge Symbioses and Clionid Borers 162

Chapter 11 Soft-Bottom Actinians and Jellyfish 167

11.1 Soft-Polyp Lifestyles 170

11.2 Psammocorallia I 172

11.3 Psammocorallia II 174

11.4 Fossil Jellyfish 176

11.5 Conulariids 178

Chapter 12 Soft-Bottom Corals 186

12.1 Secondary Soft-bottom Dwellers I 188

12.2 Secondary Soft-bottom Dwellers II 190

12.3 Scleractinia I 192

12.4 Scleractinia II 194

12.5 Non-sexual Proliferation 196

Chapter 13 Brachiopods: Bivalved Shells with a Difference 201

13.1 Recliners, Sediment Stickers and Rock Dwellers 204

13.2 Passive Implanters 206

13.3 Life Positions recorded by Epizoans 208

13.4 Productids 210

13.5 Bizarre Permian Brachiopods 212

Chapter 14 Bivalves I: Constructional and Morphogenetic Principles 218

14.1 Energy Storing Ligaments 220

14.2 Consequences of Marginal Pneu Growth 222

14.3 Growth-conformable Sculptures 224

14.4 Pholad Boring 226

14.5 Tube Bivalves 228

14.6 Chemosymbiosis and Photosymbiosis 230

Chapter 15 Bivalves II: Evolutionary Ecology 236

15.1 Adaptational Pathways 240

15.2 Mytiloida Radiation 242

15.3 Anotniid Recliners 244

15.4 Soft-bottom Pernamorphs 246

15.5 Soft-bottom Oysters 248

15.6 Rudists 250

Chapter 16 Gastropod Heteromorphy: or How to Get Out of the Spiral Syndrome 256

16.1 Derailed Coiling 258

16.2 Muricid Varices: Iterative Countdowns 260

16.3 Strombids: Terminal Countdowns 262

16.4 Ballast Shells 264

16.5 Opercula 266

16.6 Kimberella: Earliest Mollusc? 268

Chapter 17 Ammonites I: Outer Shell and Jaws How Valid is the Nautilus Model? 274

17.1 Rib Patterns 276

17.2 Shell Geometry and Streamlining 278

17.3 Aberrant Growth Patterns 280

17.4 Epizoans: Clues to Host Biology 282

17.5 Aptychi Jaw Transformation 284

17.6 Siphuncular Necks 288

Chapter 18 Ammonites II: Septal Apparatus 294

18.1 Septal Surfaces 296

18.2 Suture Lines 298

18.3 Lobe Size: Whorl Selection and Coiling 300

18.4 Placenticeras 302

18.5 Sutural Replication 304

18.6 Ceratitization in Epicontinental Seas 306

Chapter 19 Ammonites III: Taphonomy 312

19.1 Pseudo-bites in Placenticeras 314

19.2 Fragmentation by Predators 316

19.3 Fouling in Posidonia Shales 318

19.4 Bottom Transport and Accumulation 320

19.5 Diagenetic Flattening 322

19.6 Taphonomic Case Histories in Muschelkalk Ceratites 324

Chapter 20 Straight Cephalopods 330

20.1 Belemnite Rostra 332

20.2 Conellate Structures 334

20.3 Belemnite Taphonomy 336

20.4 Balancing Strategies and Apertural Margins 340

Chapter 21 Worm-Like Organisms 344

21.1 Pelagic Hitchhikers and Spaghettiform Colonies 346

21.2 Gordian Anchors and iterative Countdowns 348

21.3 Climbers and Horn-Shaped Recliners 350

21.4 Rotularia: Countdown Programs for Resurrection 352

21.5 Machaeridia: Scaly Monsterns 354

Chapter 22 Trilobites 359

22.1 Horned Trilobites and Sieve Brims 362

22.2 Terrace Lines 364

22.3 Ornamentation and Pattern Repair 366

22.4 Trilobite Burrows 368

22.5 Sensory Organs I 370

22.6 Sensory Organs II: Trilobite Eyes 374

Chapter 23 Cirripeds: Arthropods Become Sessile 380

23.1 Acrothoracica: Borings as Tools in Paleontology 382

23.2 Lepadomorpha: Halfway to Bivalvedness 384

23.3 Balanomorpha: The Ruling Cirripeds 388

23.4 Whale Barnacles 390

23.5 Turtle Barnacles I 394

23.6 Turtle Barnacles II 396

Chapter 24 Echinoids 402

24.1 Echinoid Skeletons 408

24.2 Echinoid Pneu Shapes 410

24.3 Pneu Design and Modification 414

24.4 Spines of Epibenthic Echinoids 418

24.5 Sand Dollars I: Food Transport 420

24.6 Sand Dollars II: Evolutionary History 424

Chapter 25 Crinoids 429

25.1 Ecology of Pelagic Crinoids 432

25.2 Pelagic Crinoids in Bituminous Shales 434

25.3 Ecology of Pelagic Crinoids II 438

25.4 PelagicCrinoids in Platy Limestones 440

25.5 Soft-bottom Anchorage 442

Chapter 26 Extinct Echinoderms: Deviant Symmetries and Armorred Tube Feet 447

26.1 Helicoplacoids: Playing at Peristaltic Worms 450

26.2 Ophiocistioids 452

26.3 Edrioasteroids and Cyclocystoids 454

26.4 Blastoid Morphology and Construction 456

26.5 Blastoid Variation 460

26.6 Respiration in Brachiolate Forms 462

Chapter 27 Clonal Colonies 466

27.1 Bryozoan Colonies I 470

27.2 Bryozoan Colonies II 472

27.3 Soft-bottom Favositid Colonies I 474

27.4 Soft-bottom Favositid Colonies II 476

27.5 Graptolites as Cartesian Mobiles 478

Appendix I Glossary 485

Appendix II Illustration Sources Copeland MacClintock Jessica Utrup 489

Index 515

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