Home / Ecology & Palaeoenvironment / Fossil Animal Plant Interaction

! S. Adl et al. (2010): Reconstructing the soil food web of a 100 million-year-old forest: The case of the mid-Cretaceous fossils in the amber of Charentes (SW France). PDF file, Soil Biology & Biochemistry. See also here.

B. Adroit et al. (2025): Changes in plant–herbivore interactions across time scales: bridging paleoecology and contemporary ecology. In PDF, Front. Ecol. Evol., 12: 1539173. doi: 10.3389/fevo.2024.1539173.

B. Adroit et al. (2021): Patterns of insect damage types reflect complex environmental signal in Miocene forest biomes of Central Europe and the Mediterranean. In PDF, Global and Planetary Change.
Note fig. 3N: Preservation of insect oviposition on Salix sp.

B. Adroit et al. (2018): Plant-insect interactions patterns in three European paleoforests of the late-Neogene—early-Quaternary. Open access, PeerJ, 6:e5075. See also here (in PDF).
"... our results tend to support that the hydric seasonality and the mean temperature of the coolest months could be potential factors influencing fossil plant–insect interactions".

A.A. Agrawa (2007): Macroevolution of plant defense strategies. PDF file, Trends in Ecology & Evolution.

! J. Albrecht et al. (2023): Fossil leaves reveal drivers of herbivore functional diversity during the Cenozoic. Free access, Proceedings of the National Academy of Sciences, U.S.A., 120. https://doi.org/10.1073/pnas.2300514120.
"... Using fossil data on herbivore-induced leaf damage from across the Cenozoic, we infer quantitative bipartite interaction networks between plants and functional feeding types of herbivores. We fit a general model of diversity to these interaction networks
[...] Our study highlights how the fossil record can be used to test fundamental theories of biodiversity and represents a benchmark for assessing the drivers of herbivore functional diversity in modern ecosystems ..."

Richard Alley, Pennsylvania State University: Living on Earth I: Evolution & Extinction, Geology of the National Parks. Powerpoint presentation.
Now recovered from the Internet Archive´s Wayback Machine.
! Notice the animal-plant interaction on sheet 16!

Anto Anu et al. (2009): Seasonality of litter insects and relationship with rainfall in a wet evergreen forest in south Western Ghats. PDF file, Journal of Insect Science, 9. Now via Way back machine.

! J. Asar et al. (2022): Early diversifications of angiosperms and their insect pollinators: were they unlinked? Free access. Trends in Plant Science, 27: 858-869. See also here.
Note figure 1: Emergence of crown angiosperms and insect pollinators.
Figure 2. Phylogeny of seed plants, depicting pollination modes of both extinct and extant lineages.

AScribe (press release), USA: 96-Million-Year-Old Fossil Pollen Sheds Light on Early Pollinators.

M.P. Ayres, T.P. Clausen, S.F. MacLean, A.M. Redman, and P.B. Reichardt (1997): Diversity of structure and antiherbivore activity in condensed tannins. PDF file, Ecology 78: 1696-1712.

L. Azevedo-Schmidt et al. (2022): Insect herbivory within modern forests is greater than fossil localities. Free access, PNAS, 119.
Note figure 2: Frequency of herbivory damage in fossil and Recent assemblages.

! L.H. Bailey Hortorium, Dept. Plant Biology, Cornell University, Ithaca, NY: History of Biotic Pollination. Snapshot taken by the Internet Archive´s Wayback Machine.

E.S. Bakker et al. (2016): Combining paleo-data and modern exclosure experiments to assess the impact of megafauna extinctions on woody vegetation. PNAS, 113: 847-855.

M. Barbacka et al. (2022): Early Jurassic coprolites: insights into palaeobotany and the feeding behaviour of dinosaurs. In PDF, Papers in Palaeontology.
See also here.

! N. Barling (2018): The Fidelity of Preservation of Insects from the Crato Formation (Lower Cretaceous) of Brazil. In PDF, Thesis, University of Portsmouth.
See also here.
"... The Nova Olinda Member fossil insects have a broad range of preservational fidelities.
[...] At their highest-fidelity, they are complete, fully-articulated, high-relief specimens with submicron-scale replication of both external and internal morphology. Cuticular structures (setae, scales, ommatidia, etc.) are sometimes replicated to the submicron-scale
[...] The remaining tissues are obliterated by pseudomorphed pseudoframboids (or pseudoframboid-like aggregates), which also protected the carcass from compaction ..."

P.M. Barrett (2014): Paleobiology of herbivorous dinosaurs. Abstract, Annual Review of Earth and Planetary Sciences.

D. Barthelt-Ludwig et al. (2004): Rätsel im Stein – Auf paläontologischer Spurensuche. PDF file, in German.

! J. Bascompte and P. Jordano (2007): Plant-animal mutualistic networks: the architecture of biodiversity. In Word doc, Annu. Rev. Ecol. Evol. Syst. See also here (abstract).

Roy J. Beckemeyer, Wichita: Fossil Insects. Permian fossil insects from Elmo, Kansas, and Midco, Oklahoma.

B.B. Blaimer et al. (2023): Key innovations and the diversification of Hymenoptera. Free access, Nature Communications, 14.
See also here.
Note figure 1: Family-level phylogeny of Hymenoptera.
Figure 2: Timeline and evolution of parasitoidismin Hymenoptera.

! J.L. Blois et al. (2013): Climate Change and the Past, Present, and Future of Biotic Interactions. In PDF, Science 341.
See also here.

J.C. Blong (2023): Sequential biomolecular, macrofossil, and microfossil extraction from coprolites for reconstructing past behavior and environments. Free access, Front. Ecol. Evol., 11:1131294. doi: 10.3389/fevo.2023.1131294.

E.M. Bordy et al. (2024): Selected Karoo geoheritage sites of palaeontological significance in South Africa and Lesotho. Open access, Geological Society, London, Special Publications, 543: 431-446. See likewise here.
Note figure 3c: Palaeo-art mural of a late Permian scene (artwork by Gerhard Marx).
Figure 9f: Reconstruction of the Early Jurassic dinosaur-dominated ecosystem of southern Gondwana.

Helen Briggs, BBC News Online: Oldest hamster food store found. A hoard of nuts (Miocene in age) discovered in an open-cast mine near Garzweiler (Germany).

! N. Brocklehurst et al. (2020): The origin of tetrapod herbivory: effects on local plant diversity. Free access, Proc. R. Soc. B 287: 20200124.
"... findings suggest that plant richness was to some extent structured by vertebrate herbivory from its earliest origins more than 300 Mya. Studies of modern ecosystems suggest that this should be the case, ..."

C.M. Brown et al. (2020): Dietary palaeoecology of an Early Cretaceous armoured dinosaur (Ornithischia; Nodosauridae) based on floral analysis of stomach contents. Open access, R. Soc. Open Sci., 7: 200305.

M.C. Brundrett (2002): Coevolution of roots and mycorrhizas of land plants. In PDF, New phytologist, 154: 275-304.
Provided by the Internet Archive´s Wayback Machine.

R.J. Butler et al. (2009): Diversity patterns amongst herbivorous dinosaurs and plants during the Cretaceous: implications for hypotheses of dinosaur/angiosperm co-evolution. PDF file, Journal of Evolutionary Biol., 22: 446-459. See also here (abstract).

! R.J. Butler et al. (2009): Testing co-evolutionary hypotheses over geological timescales: interactions between Mesozoic non-avian dinosaurs and cycads. PDF file, Biol. Rev., 84: 73-89. See also here (abstract).

R.J. Butler et al. (2009): Diversity patterns amongst herbivorous dinosaurs and plants during the Cretaceous: implications for hypotheses of dinosaur/angiosperm co-evolution. Free access, Journal of Evolutionary Biol., 22: 446-459.

C. Cai et al. (2018): Beetle Pollination of Cycads in the Mesozoic. Abstract, Current Bialogy, 28: 2806-2812. See also here and there.

William Cannon, Smithsonian magazine: Stories in Stone Read From Ancient Leaves. A Smithsonian scientist studies the relationship between Eocene insects and the plants they ate.

S.C. Cappellari et al. (2013): Evolution: Pollen or Pollinators — Which Came First? Open access, Current Biology, 23.

B. Cariglino (2018): Patterns of insect-mediated damage in a Permian Glossopteris flora from Patagonia (Argentina) Palaeogeography, Palaeoclimatology, Palaeoecology, 507: 39-51. See also here.

S.W. Carmichael (2019): Did Beetles Pollinate Ancient Plants? A review. Free access, MicroscopyToday, 27: 8-11

J.A. Caruso and A.M.F. Tomescu (2012): Microconchid encrusters colonizing land plants: the earliest North American record from the Early Devonian of Wyoming, USA. In PDF, Lethaia, 45: 490-494.
see also here.
About plant decay rates.
"... The Beartooth Butte Formation provides the first record of plant colonization by microconchids in North America and, along with only one other Early Devonian record from Germany, the oldest evidence for microconchids colonizing plant substrates ..."

! R. Cenci and K. Adami-Rodrigues (2017): Record of gall abundance as a possible episode of radiation and speciation of galling insects, Triassic, Southern Brazil. In PDF, Revista Brasileira de Paleontologia, 20: 279-286.
See also here and there.

P. Cennamo et al. (2014): Epiphytic Diatom Communities on Sub-Fossil Leaves of Posidonia oceanica Delile in the Graeco-Roman Harbor of Neapolis: A Tool to Explore the Past. In PDF, American Journal of Plant Sciences, 5: 549-553.

W.G. Chaloner et al. (1991): Fossil Evidence for Plant-Arthropod Interactions in the Palaeozoic and Mesozoic. Open access, Philosophical Transactions: Biological Sciences, 333: 177-186.

A. Channing and D.E. Wujek (2010): Preservation of protists within decaying plants from geothermally influenced wetlands of Yellowstone National Park, Wyoming, United States. PDF file, Palaios, 25: 347-355.
See also here.

A. Chaudhary et al. (2018): Plant defenses against herbivorous insects: A Review. In PDF, International Journal of Chemical Studies, 6: 681-688. See also here.

L. Chen et al. (2021): Ovipositor and mouthparts in a fossil insect support a novel ecological role for early orthopterans in 300 million years old forests. In PDF, eLife.

Karen Chin (Nature 451, 1053;2008): Pest friends in the Cretaceous. Fossils preserved in amber hint at surprising links between dinosaurs and their insect contemporaries. Book review: What Bugged the Dinosaurs? Insects, Disease, and Death in the Cretaceous; by George Poinar, Jr & Roberta Poinar, Princeton University Press, 2008. 296 pp.

L. Chittka et al. (1999): Flower Constancy, Insect Psychology, and Plant Evolution. In PDF.

Fred Clouter, Lower Eocene Fossils of the Isle of Sheppey: Fossil Trees & Logs. Teredo borings.

P.D. Coley (1999): Hungry herbivores seek a warmer world. PDF file.

! M.E. Collinson and J.J. Hooker (1991): Fossil Evidence of Interactions between Plants and Plant-Eating Mammals. In PDF, Philosophical Transactions: Biological Sciences, 333: 197-208.

! P. Correia et al. (2020): The History of Herbivory on Sphenophytes: A New Calamitalean with an Insect Gall from the Upper Pennsylvanian of Portugal and a Review of Arthropod Herbivory on an Ancient Lineage. In PDF, Int. J. Plant Sci., 181. See also here.
Please take notice of fig. 3: Interpretative-view drawing of Annularia paisii sp. nov. and Paleogallus carpannularites ichnosp. nov.
Fig. 4: Reconstruction of the parasitic relationship between the insect-induced gall Paleogallus carpannularites ichnosp. nov. and its calamitalean host plant.

Paleobotanical Holdings at the Liberty Hyde Bailey Hortorium at Cornell University, Dept. Plant Biology, Cornell University, Ithaca, NY: History of Biotic Pollination. Provided by the Internet Archive´s Wayback Machine.

Richard Cowen, Department of Geology, University of California, Davis: Studying Evolution. Mini-essays and sub-sections concerning evolution. See: Coevolution: Plants and Pollinators.

! P.R. Crane and A.B. Leslie (2013): Major Events in the Evolution of Land Plants. In PDF. The Princeton Guide to Evolution.
1. Phylogenetic framework.
2. Origin and diversification of land plants.
3. Origin and diversification of vascular plants.
4. Origin and diversification of seed plants.
5. Origin and diversification of flowering plants.
6. Innovation in the land plant body.
7. Innovation in land plant reproduction.
8. Co-evolution with animals.
9. Patterns of extinction.
See also here, and there (Google books).

E.D. Currano et al. (2021): Scars on fossil leaves: An exploration of ecological patterns in plant–insect herbivore associations during the Age of Angiosperms. In PDF, Palaeogeography, Palaeoclimatology, Palaeoecology, 582. See also here.

E.D. Currano (2010): Green food through time. Abstract, Palaios, 25: 547-549.

E.D. Currano et al. (2008): Sharply increased insect herbivory during the Paleocene–Eocene Thermal Maximum. Free access, PNAS, 105: 1960-1964.

K. De Baets and D.T.J. Littlewood (2015): The Importance of Fossils in Understanding the Evolution of Parasites and Their Vectors. Advances in Parasitology, 90: 1–51. ! See also here (in PDF).

DEEMY Characterization and DEtermination of EctoMYcorrhizae (by Ludwig-Maximilians-Universität München, Dept. Biologie I - Systematische Mykologie). DEEMY is a research database (including images) for identifying and characterizing ectomycorrhizae fungus-plant interactions.

W. de Haan (2020): Pollination: Cooperation or Arms Race? An analysis of competition in biotic pollination. In PDF, Bachelor thesis.

P.J. de Schutter et al. (2023): An exceptional concentration of marine fossils associated with wood-fall in the Terhagen Member (Boom Formation; Schelle, Belgium), Rupelian of the southern North Sea Basin. Free access, Geologica Belgica, 26.
"... A large fragment of driftwood was discovered in the marine Terhagen Member (Boom Formation, NP23) at Schelle (Belgium), representing the first well-documented case of wood-fall in the Rupelian of the North Sea Basin ..."

Q. Ding et al. (2014): Biology of a leaf miner (Coleoptera) on Liaoningocladus boii (Coniferales) from the Early Cretaceous of northeastern China and the leaf-mining biology of possible insect culprit clades. In PDF, Arthropod Systematics & Phylogeny, 72: 281-308.

W.A. DiMichele et al. (2023): A paleontological perspective on ecosystem assembly rules in the terrestrial Paleozoic. Free access, Evolving Earth.
Note figure 1: Early Devonian (Emsian) flora from Gaspé, Canada.
Figure 2C: Edaphosaurus feeding on Supaia plants on stream bank, with background vegetation dominated by conifers. Early Permian (Wolfcampian/Asselian), New Mexico.

! W.A. DiMichele and H.J. Falcon-Lang (2011): Pennsylvanian "fossil forests" in growth position (T⁰ assemblages): origin, taphonomic bias and palaeoecological insights. PDF file, Journal of the Geological Society, London, 168: 585-605. See also here.
Note fig. 14 (PDF page 17), Animals using hollow Sigillarian stumps as refuges from fire.

M.P. Donovan et al. (2023): Insect herbivore and fungal communities on Agathis (Araucariaceae) from the latest Cretaceous to Recent. In PDF, PhytoKeys 226: 109–158. https://doi.org/10.3897/phytokeys.226.99316.
See also here.

M.P. Donovan et al. (2020): Persistent biotic interactions of a Gondwanan conifer from Cretaceous Patagonia to modern Malesia. In PDF, Communications Biology, 3.

T.B. Dos Santos et al. (2024): Plant interactions with arthropods and pathogens at Sanzenbacher Ranch, early Permian of Texas, and implications for herbivory evolution in Southwestern Euramerica. Free access, Front. Ecol. Evol., Sec. Biogeography and Macroecology, 12. https://doi.org/10.3389/fevo.2024.1368174.

A. Duhin et al. (2022): Early land plants: Plentiful but neglected nutritional resources for herbivores? Open access, Ecology and Evolution, 12.

J.A. Dunlop and R.J. Garwood (2017): Terrestrial invertebrates in the Rhynie chert ecosystem. In PDF, Phil. Trans. R. Soc. B, 373: 20160493.

L.A. Dyer and D.K. Letourneau (2003): Top-down and bottom-up diversity cascades in detrital versus living food webs. PDF file, Ecology Letters 6:60-68.
Now recovered from the Internet Archive´s Wayback Machine.

G. Edirisooriya and H.A. Dharmagunawardhane (2013): Plant Insect-Interactions in Jurassic Fossil Flora from Sri Lanka. In PDF, International Journal of Scientific and Research Publications, 3.

! The EDNA fossil insect database (named after Edna Clifford): EDNA aims to be a complete, fully interactive list of all the species of insect named from the fossil record, including site, geological age and reference for each holotype. Read the Help Searching for better search results.

! D. Edwards et al. (2020): Further evidence for fungivory in the Lower Devonian (Lochkovian) of the Welsh Borderland, UK. Open access, PalZ, 94: 603–618.

Department of Earth Sciences, Royal Holloway University of London, Egham, Surrey, UK: Research activities,
Animal -plant interactions.
Still available through the Internet Archive´s Wayback Machine.

M. El Hedeny et al. (2020): Bivalve borings in Maastrichtian fossil Nypa fruits: Dakhla Formation, Bir Abu Minqar, South Western Desert, Egypt. In PDF, Ichnos, DOI: 10.1080/10420940.2020.1784158. See also here.

EnchantedLearning.com: DINOSAURS AND PLANTS. An easy to understand introduction about the food chain of sauropods and Triassic, Jurassic and Cretaceous plants.

M.-J. Endara et al. (2023): The Evolutionary Ecology of Plant Chemical Defenses: From Molecules to Communities. Open access, Annual Review of Ecology, Evolution, and Systematics, 54: 107-127.
"... we summarize current trends in the study of plant–herbivore interactions and how they shape the evolution of plant chemical defenses, host choice, and community composition and diversity
[...] On an evolutionary timescale, host choice by herbivores is largely determined by plant defenses rather than host phylogeny, leading to evolutionary tracking by herbivores rather than cocladogenesis ..."

I.V. Enushchenko and A.O. Frolov (2020): Revision of existing classification of fossil insect feeding traces and description of new ichnotaxa from Middle Jurassic sediments of Eastern Siberia (Russia). In PDF, Zootaxa, 4758: 347–359.

Neal L. Evenhuis, Department of Natural Sciences, Bishop Museum, Honolulu, Hawaii: Catalogue of the fossil flies of the world (Insecta: Diptera).

Michael J. Everhart, Sternberg Museum of Natural History, Fort Hays State University: OCEANS OF KANSAS - A Natural History of the Western Interior Sea (Indiana University Press, 2005), Shipworm borings (teredo) in wood.

C.T. Faulkner (2014): A Retrospective Examination of Paleoparasitology and its Establishment in the Journal of Parasitology. In PDF, Papers in Natural Resources, 402.

Z. Feng et al. (2023): Specialized herbivory in fossil leaves reveals convergent origins of nyctinasty. Open access Current Biaology. Note also:
Urzeitlicher Blatt-Schlaf im Spiegel von Fraßspuren. In German, Bild der Wissenschaft.

Z. Feng et al. (2021): Plant–insect interactions in the early Permian Wuda Tuff Flora, North China. Free access, Review of Palaeobotany and Palynology, 294.

Z. Feng et al. (2019): Beetle borings in wood with host response in early Permian conifers from Germany. Free access, PalZ.

Z. Feng et al. (2017): Late Permian wood-borings reveal an intricate network of ecological relationships. In PDF, Nature Communications, 8. See also here. (abstract).

L.E. Fiorelli et al. (2013): The oldest known communal latrines provide evidence of gregarism in Triassic megaherbivores. Sci Rep., 3.

D. Frame and G. Gottsberger (2023): Diverse sexual strategies in fossil gymnosperms: pollination in the Bennettitales revisited. In PDF, Phyton, 62–63: 127–137. See also here.
"... Our review grounded in modern concepts of floral biology and plant-animal interactions leads to new interpretations of existing data
[...] Pollination was similar to an angiosperm cantharophilous syndrome, complete with pollination chamber, except that bisexual bennetittalean flowers were protandrous rather than protogynous
[...] Beetles in the pollination chamber mated and females oviposited in the androecium ..."

F. Fraser et al. (2020): Investigating Biotic Interactions in Deep Time. Free accesss, Trends in Ecology & Evolution.

N.C. Fraser et al. (1996): A Triassic lagerstätte from eastern North America. PDF file, Nature, 380: 615–619. See also here.

Jörg Fröbisch and Robert R. Reisz (2009): The Late Permian herbivore Suminia and the early evolution of arboreality in terrestrial vertebrate ecosystems. Abstract, see also here (brief summary by Matt Celeskey). The earliest tree-dweller in the late Permian.

! D.J. Futuyma and A.A. Agrawal (2009): Macroevolution and the biological diversity of plants and herbivores. In PDF.

O.F. Gallego et al. (2011): The most ancient Platyperlidae (Insecta, Perlida= Plecoptera) from early Late Triassic deposits in southern South America. In PDF, Ameghiniana, 48: 447-461. See also here (abstract).
Please take notice: Fig. 8, the reconstruction by Carsten Brauckmann and Elke Gröening. A plecopteran nymph over a Dicroidium leaf under the water surface.

R. Garrouste et al. (2016): Insect mimicry of plants dates back to the Permian. Nat. Commun., 7: 13735.
Figure 3 shows a reconstruction of Permotettigonia gallica gen. et sp. nov. on Taeniopteris sp.

! Robert A. Gastaldo et al. (2005): Taphonomic Trends of Macrofloral Assemblages Across the Permian-Triassic Boundary, Karoo Basin, South Africa. PDF file, Palaios. See also here.

C.T. Gee (2013): Sauropod herbivory and the Mesozoic flora. Conference abstract, in PDF; Go to PDF page 22.

C.T. Gee (2011, starting on PDF page 46): Dietary options for the sauropod dinosaurs from an integrated botanical and paleobotanical perspective. In PDF, In: Biology of the sauropod dinosaurs: Understanding the life of giants (ed. N. Klein, K. Remes, C.T. Gee and P. M. Sander). Indiana University Press, Bloomington.
See also here . Provided by Google books.

Carole T. Gee (2008): Sauropod food plants from physiological and paleobotanical perspectives. Abstract, 18th Plant Taphonomy Meeting, Vienna, Austria.

C.T. Gee et al. (2003): A Miocene rodent nut cache in coastal dunes of the Lower Rhine Embayment, Germany. In PDF, Palaeontology, 46. See also here (abstract).

J.F. Genise et al. (2020): 100 Ma sweat bee nests: Early and rapid co-diversification of crown bees and flowering plants. Open access, PLoS ONE 15: e0227789.

Geology.com. This is one of the internet´s leading websites for earth science news and information. Go to:
Peanut Wood.

G. Geyer and K.-P. Kelber (1987): Flügelreste und Lebensspuren von Insekten aus dem Unteren Keuper Mainfrankens. PDF file, (in German).

E.H. Gierlowski-Kordesch and C.F. Cassle (2015): The "Spirorbis" problem revisited: Sedimentology and biology of microconchids in marine-nonmarine transitions. Abstract, Earth-Science Reviews. See also here.

F.L. Gill et al. (2018): Diets of giants: the nutritional value of sauropod diet during the Mesozoic. Free access, Palaeontology, 61: 647–658.

L.A. Giraldo et al. (2024): Fossil insect-feeding traces indicate unrecognized evolutionary history and biodiversity on Australia's iconic Eucalyptus. Free access, New Phytologist. https://doi.org/10.1111/nph.20316.
"... We studied the insect herbivore damage found on 284 Eucalyptus frenguelliana leaves from the early Eocene Laguna del Hunco rainforest locality in Argentinean Patagonia and compared damage patterns with those observed on extant, rainforest-associated Eucalyptus species from Australasia
[...] The finding of all the fossil damage types on extant Eucalyptus specimens suggests long-standing associations between multiple insect herbivore lineages and their host genus spanning 52 million years across the Southern Hemisphere ..."

J.J. Glas et al. (2012): Plant Glandular Trichomes as Targets for Breeding or Engineering of Resistance to Herbivores. In PDF, Int. J. Mol. Sci., 13: 17077-17103.

R. Gorelick (2001): Did insect pollination cause increased seed plant diversity? PDF file, Biological Journal of the Linnean Society, 74: 407-427.

L. Grauvogel-Stamm & K.-P. Kelber (1996): Plant-insect interactions and coevolution during the Triassic in Western Europe.- PDF file, 30 MB! Paleontologica Lombardia, N. S. 5: 5-23, 31 fig.; Milano. Abstract available here.

M. Grünemeier (2017): Not just hyphae — the amber mite Glaesacarus rhombeus as a forager on hardened resin surfaces and a potential scavenger on trapped insects. In PDF, Palaeodiversity, 10.
Note fig. 5: Illustration depicting the possible behaviour of Glaesacarus rhombeus on the bark of Pinus succinifera with a trapped spider.

N.L. Gunter et al. (2016): If Dung Beetles (Scarabaeidae: Scarabaeinae) Arose in Association with Dinosaurs, Did They Also Suffer a Mass Co-Extinction at the K-Pg Boundary?. Open access, PLOS ONE, DOI:10.1371.

H. Hagdorn et al. (2015): 15. Fossile Lebensgemeinschaften im Lettenkeuper. - p. 359-385, PDF file, in German. Go to PDF page 8:
! Bite traces on plants from the germanotype Lower Keuper (Lettenkeuper, Erfurt Formation, Ladinian, Triassic).
In: Hagdorn, H., Schoch, R. & Schweigert, G. (eds.): Der Lettenkeuper - Ein Fenster in die Zeit vor den Dinosauriern. Palaeodiversity, Special Issue (Staatliches Museum für Naturkunde Stuttgart).
! You may also navigate via back issues of Palaeodiversity 2015. Then scroll down to: Table of Contents "Special Issue: Der Lettenkeuper - Ein Fenster in die Zeit vor den Dinosauriern".
Still available via Internet Archive Wayback Machine.

A.T. Halamski and P.D. Taylor (2022): Angiosperm tree leaf as a bryozoan substrate: a case study from the Cretaceous and its taphonomic consequences. Free access, Lethaia, 55.

Terry Harrison (2011): Coprolites: Taphonomic and Paleoecological Implications. PDF file, Paleontology and geology of Laetoli. Provided by the Internet Archive´s Wayback Machine.

C. Hartkopf-Fröder et al. (2011): Mid-Cretaceous charred fossil flowers reveal direct observation of arthropod feeding strategies. Open access, Biol. Lett., 8: 295–298.

S.T. Hasiotis et al. (1998): Research Update on Hymenopteran Nests and Cocoons, Upper Triassic Chinle Formation, Petrified Forest National Park, Arizona.
See also here.

C. Haug et al. (2023): Fossils in Myanmar amber demonstrate the diversity of anti-predator strategies of Cretaceous holometabolan insect larvae. Open access, iScience, 27. DOI:https://doi.org/10.1016/j.isci.2023.108621.
"... This overview demonstrates that already 100 million years ago many modern strategies had already evolved in multiple lineages, but also reveals some cases of now extinct strategies ..."

T. Hazra et al. (2023): Marginal leaf galls on Pliocene leaves from India indicate mutualistic behavior between Ipomoea plants and Eriophyidae mites. Open access, Scientific Reports, 13.

M. Heingård et al. (2022): Preservation and Taphonomy of Fossil Insects from the Earliest Eocene of Denmark. Open access, Biology, 11.

E.A. Heise et al. (2011): Wood taphonomy in a tropical marine carbonate environment: Experimental results from Lee Stocking Island, Bahamas. In PDF, Palaeogeography, Palaeoclimatology, Palaeoecology, 312: 363-379.
See also here.

! C.M. Herrera (1985): Determinants of plant-animal coevolution: the case of mutualistic dispersal of seeds by vertebrates. PDF file, Oikos, 44.

! G. Horváth et al. (2019): How did amber get its aquatic insects? Water-seeking polarotactic insects trapped by tree resin. Free access, Historical Biology, DOI: 10.1080/08912963.2019.1663843.

! M.M. Howell et al. (2023): Digestibility of dinosaur food plants revisited and expanded: Previous data, new taxa, microbe donors, foliage maturity, and seasonality. Open access, PLOS One, 18. https://doi.org/10.1371/journal.pone.0291058.
"... Most notably, all species of the horsetail genus Equisetum continue to be the most digestible and energetically profitable, while the conifer genus Araucaria is similarly confirmed to be a viable, consistently high performing food resource for herbivorous dinosaurs.
[...] results contribute to a more complete understanding of the nutritive capacity of Mesozoic plants for the herbivores that relied on them ..."

! S. Hu et al. (2008): Early steps of angiosperm-pollinator coevolution. PDF file, PNAS, 105: 40-245. See also here (abstract).

I.B. Huegele and S.R. Manchester (2020): An Early Paleocene Carpoflora from the Denver Basin of Colorado, USA, and Its Implications for Plant-Animal Interactions and Fruit Size Evolution. Free access, Int. J. Plant Sci., 181: 646–665.

D.P. Hughes et al. (2011): Ancient death-grip leaf scars reveal ant-fungal parasitism. PDF file, Biology Letters, 7: 67-70.
See also here.

J. Hummel et al. (2008): In vitro digestibility of fern and gymnosperm foliage: implications for sauropod feeding ecology and diet selection. PDF file, Proc. R. Soc. B, 275. See also here.
"Based on our experimental results, plants such as Equisetum, Araucaria, Ginkgo and Angiopteris would have formed a major part of sauropod diets, while cycads, tree ferns and podocarp conifers would have been poor sources of energy".

Y. Imada et al. (2022): Oldest leaf mine trace fossil from East Asia provides insight into ancient nutritional flow in a plant-herbivore interaction. Free access, Sci. Rep., 12: 5254. See also here.
Note figure 4: Mining structures known so far from the Middle–Late Triassic.

International Palaeoentomological Society (IPS). The aims of the Society are to promote and advance the understanding of fossil insects and other non-marine arthropods.

! D. Jablonski (2008): Biotic interactions and macroevolution: extensions and mismatches across scales and levels. PDF file, Evolution, 62: 715-739.

! E.M. Janson et al. (2008): Phytophagous insect-microbe mutualisms and adaptive evolutionary diversification. In PDF.

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J.E. Kalyniuk et al. (2023): The Albian vegetation of central Alberta as a food source for the nodosaurid Borealopelta markmitchelli. Free access, Palaeogeography, Palaeoclimatology, Palaeoecology, 611.

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M.A. Khan et al. (2014): Fossil evidence of insect folivory in the eastern Himalayan Neogene Siwalik forests. In PDF, Palaeogeography, Palaeoclimatology, Palaeoecology, 410: 264-277. See also here (abstract).

Derek Keats, Department of Botany, University of the Western Cape, Bellville (Cape Town) South Africa: Herbivory.
Website outdated, download a version archived by the Internet Archive´s Wayback Machine.

K.-P. Kelber and G. Geyer (1989): Lebensspuren von Insekten an Pflanzen des Unteren Keupers. In German, PDF file. Cour. Forsch.-Inst. Senckenberg, 109: 165-174.

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Book announcement: Kelley, Patricia H.; Kowalewski, Michal; Hansen, Thor A. (eds.): Predator-Prey Interactions in the Fossil Record. Series: Topics in Geobiology, Vol. 20; 2003, 484 p.

! P.G. Kevan and H.G. Baker (1983): Insects as flower visitors and pollinators. In PDF, Annual review of entomology.

M.A. Khan et al. (2014): Fossil evidence of insect folivory in the eastern Himalayan Neogene Siwalik forests. In PDF, Palaeogeography, Palaeoclimatology, Palaeoecology, 410: 264-277.

! A.V. Khramov et al. (2023): The earliest pollen-loaded insects from the Lower Permian of Russia. In PDF, Biol. Lett., 19: 20220523.
See also here.
Note figure 2k: Artistic reconstruction of female Tillyardembia feeding on Pechorostrobus pollen organ (Rufloriaceae).

S. Kiel et al. (2012): Fossilized digestive systems in 23 million-year-old wood-boring bivalves. Open access, Journal of Molluscan Studies, 78: 349–356.
"... Fossilized remnants of parts of the digestive system of wood-boring pholadoidean bivalves are reported from late Oligocene–early Miocene deep-water sediments ..."

S.D. Klavins et al. (2005): Coprolites in a Middle Triassic cycad pollen cone: evidence for insect pollination in early cycads? PDF file, Evolutionary Ecology Research, 7: 479-488.
See also here.

J. Koricheva (2002): Meta-analysis of sources of variation in fitness costs of plant antiherbivore defenses. PDF file, Ecology 83: 176-190.
See also here.

M. Kowalewski (2002): The fossil record of predation: An overview of analytical methods. PDF file, In: Kowalewski, M., and Kelley, P.H., eds., The Fossil Record of Predation: Paleontological Society Special Papers 8: 3-42.

V. Krassilov et al. (2008): Plant-Arthropod Interactions in the Early Angiosperm History. Evidence from the Cretaceous of Israel. In PDF.

V.A. Krassilov and E.V. Karasev (2008): First evidence of plant-arthropod interaction at the Permian-Triassic boundary in the Volga Basin, European Russia. PDF file, Alavesia, 2: 247-252.

V.A. Krassilov and A.P. Rasnitsyn (2008): Plant-arthropod interactions in the early angiosperm history: evidence from the Cretaceous of Israel. PDF file, 222 p., (Pensoft Publishers & Brill Academic Publishers), Sofia, Moscow.

V.A. Krassilov (1981): Changes of Mesozoic vegetation and the extinction of dinosaurs. Abstract, Palaeogeography, Palaeoclimatology, Palaeoecology, 34: 207-224. See also here (in PDF).

M. Krings et al.(2002): Touch-sensitive glandular trichomes: a mode of defence against herbivorous arthropods in the Carboniferous. PDF file, Evolutionary Ecology Research, 4: 779-786. See also here.

A. Krüger et al. (2021): 3D imaging of shark egg cases (Palaeoxyris) from Sweden with new insights into Early Jurassic shark ecology. Open access, GFF, 143: 229-247.
Note figure 11: Reconstruction of Palaeoxyris egg cases attached to Neocalamites (Equisitum) (sic!) stems.

K. Kumar et al. (2011): Ichnospecies Teredolites longissimus and Teredinid Body Fossils from the Early Eocene of India—Taphonomic and Palaeoenvironmental Implications. Abstract, Ichnos 18. See also here (in PDF).
"... The wood substrate (Aglaia, Meliaceae) was transported to the marine realm from its natural habitat of inland moist tropical forest by a river or stream. Postinfestation, it was buried in a near-shore lagoon or a tidal flat area, ..."

E. Kustatscher et al. (2013): Early Cretaceous araucarian driftwood from hemipelagic sediments of the Puez area, South Tyrol, Italy. Free access, Cretaceous research, 41: 270-276.
Note figure 2A: A polished transverse section with some teredinid molluscan borings.

M. Laaß and R. Rößler (2024): Kapitel 12: Tier-Pflanze-Interaktionen. PDF file, in German, in: R. Werneburg and J.W. Schneider (eds.): Die Rotliegend-Fauna des Thüringer Waldes.
See also Palökologie im Karbon und Perm des Thüringer-Wald-Beckens.

M. Laaß et al. (2020): First evidence of arthropod herbivory in calamitalean stems from the Pennsylvanian of Germany. In PDF, Annales Societatis Geologorum Poloniae, 90: 219-246. See also here.
Note fig. 7: Taphonomy and fossilization of the calamitalean pith cast with arthropod borings.

M. Laaß and N. Hauschke (2019): First evidence of borings in calamitean stems and other plant-arthropod interactions from the late Pennsylvanian of the Saale Basin. In PDF, ICCI 2019 Abstract + Field;
Hallesches Jahrbuch für Geowissenschaften, Beiheft 46. See also here and there.

C.C. Labandeira and R. Cenci (2024): Workshop: Insect-Plant Interaction Notes. In PDF, Conference: Ichnia 2024 - The 5^th International Congress on Ichnology, Florianópolis, Brazil.
! Note figure 1: The functional feeding group–damage type (FFG-DT) system for documenting and analyzing herbivory in the fossil record.

! C.C. Labandeira and T. Wappler (2023): Arthropod and pathogen damage on fossil and modern plants: exploring the origins and evolution of herbivory on land. In PDF, Annual Review of Entomology, 68: 341-361.
See also here (open access).
Note figure 1: The FFG-DT system [FFG = functional feeding group, DT = damage type] for documenting and analyzing herbivory in the fossil record.
Figure 2: Important studies of plant–insect interactions from plant assemblages of the fossil record.

! C.C. Labandeira (2021): Ecology and Evolution of Gall-Inducing Arthropods: The Pattern from the Terrestrial Fossil Record. In PDF, Frontiers in Ecology and Evolution, 9: 632449. doi: 10.3389/fevo.2021.632449.

! C.C. Labandeira and L. Li (2021): The History of Insect Parasitism and the Mid-Mesozoic Parasitoid Revolution. Abstract, The Evolution and Fossil Record Of Parasitism, p. 377-533. See also here (in PDF).

C.C. Labandeira et al. (2018): Expansion of Arthropod Herbivory in Late Triassic South Africa: The Molteno Biota, Aasvoëlberg 411 Site and Developmental Biology of a Gall. Abstract, with an extended citation list. Pages 623-719. In: L.H. Tanner (ed.): The Late Triassic World.
"... Aas411 was one of the most herbivorized of Molteno´s 106 sites, consisting of 20,358 plant specimens represented by 111 plant form-taxa that includes 14 whole-plant taxa (WPT); the insect damage consists of 11 functional feeding groups (FFGs), 44 damage types (DTs) and 1127 herbivorized specimens. ..."

! C.C. Labandeira et al. (2016): Floral Assemblages and Patterns of Insect Herbivory during the Permian to Triassic of Northeastern Italy. PLoS ONE. 11. See also here (in PDF).

! C.C. Labandeira et al. (2016): The evolutionary convergence of mid-Mesozoic lacewings and Cenozoic butterflies. See also here (in PDF). Proc. R. Soc., B 283.
Heritagedaily: Paleobotanist plays role in discovery of "Jurassic butterflies". An artist´s rendering of the butterfly Oregramma illecebrosa, consuming pollen drops from Triassic bennettitales.

! C.C. Labandeira et al. (2014): Middle Devonian liverwort herbivory and antiherbivore defence. Free access, New Phytologist, 202: 247–258.

C.C. Labandeira and R. Prevec (2014): Plant paleopathology and the roles of pathogens and insects. Abstract, International Journal of Paleopathology, 4: 1-16. For PDF version click: View/Open - Smithsonian

! C.C. Labandeira (2013): Deep-time patterns of tissue consumption by terrestrial arthropod herbivores. Abstract.

! C.C. Labandeira and E.D. Currano (2013): The Fossil Record of Plant-Insect Dynamics. Abstract, Annual Review of Earth and Planetary Sciences, 41: 287-311.

Conrad C. Labandeira (2010): The Pollination of Mid Mesozoic Seed Plants and the Early History of Long-proboscid Insects. PDF file, Annals of the Missouri Botanical Garden, 97: 469-513. See also here.

Conrad C. Labandeira (2010): The Pollination of Mid Mesozoic Seed Plants and the Early History of Long-proboscid Insects. In PDF, Annals of the Missouri Botanical Garden, 97: 469-513.
See also here and there.

! C.C. Labandeira (2007): Assessing the fossil record of plant-insect associations: ichnodata versus body-fossil data. SEPM Special Publication No. 88. See also here (in PDF).

Conrad C. Labandeira et al. (2007): Pollination drops, pollen, and insect pollination of Mesozoic gymnosperms. PDF file, Taxon, 56: 663-695.

! C.C. Labandeira et al. (2007): Guide to Insect (and Other) Damage Types on Compressed Plant Fossils. In PDF, Version 3.0. Smithsonian Institution, Washington. See also here.

! C. Labandeira (2007): The origin of herbivory on land: initial patterns of plant tissue consumption by arthropods. Open access, Insect science, 14: 259-275.

! C.C. Labandeira (2006): Silurian to Triassic plant and insect clades and their associations: new data, a review, and interpretations. In PDF, Arthropod Systematics & Phylogeny, 64: 53-94.

! Conrad C. Labandeira (2006): The Four Phases of Plant-Arthropod Associations in Deep Time. PDF file, Geologica Acta, 4: 409-438.

C.C. Labandeira (2005): Invasion of the continents: cyanobacterial crusts to tree-inhabiting arthropods. In PDF, Trends in Ecology and Evolution, 20.

! C.C. Labandeira (1998): Plant-Insect Associatons from the Fossil Record. PDF file, Geotimes. With instructive illustrations.
This expired link is now available through the Internet Archive´s Wayback Machine.
See also here.

Conrad C. Labandeira, Department of Paleobiology, National Museum of Natural History, Smithsonian Institution, Washington, DC: Enhanced: How Old Is the Flower and the Fly? Including an extensive annotated link directory. Science 1998; 280: 57-59.

! Conrad C. Labandeira (1998): EARLY HISTORY OF ARTHROPOD AND VASCULAR PLANT ASSOCIATIONS. PDF file, Annu. Rev. Earth Planet. Sci., 26: 329-377.

C.C. Labandeira et al. (1994): Ninety-seven million years of angiosperm-insect association: paleobiological insights into the meaning of coevolution. In PDF, PNAS.

! C.C. Labandeira and J.J. Sepkoski (1993): Insect diversity in the fossil record. PDF file, Science, 26: 310-315.
See also here.

! Conrad C. Labandeira et al., Department of Paleobiology, Smithsonian Institution, National Museum of Natural History: Guide to Insect (and Other) Damage Types on Compressed Plant Fossils (PDF file). See also here.

Conrad C. Labandeira and Gunter J. Eble, Smithsonian Institution, National Museum of Natural History, Department of Paleobiology, Washington, DC: THE FOSSIL RECORD OF INSECT DIVERSITY AND DISPARITY (PDF file).

M.B. Lara et al. (2017): Palaeoenvironmental interpretation of an Upper Triassic deposit in southwestern Gondwana (Argentina) based on an insect fauna, plant assemblage, and their interactions. In PDF, Palaeogeography, Palaeoclimatology, Palaeoecology, 476: 163–180. See also here.

Joachim Laukenmann, Die Zeit: Saurier - Theorie der Giganten (in German). The sauropod gigantism.
Still available via Internet Archive Wayback Machine.

! C.J. LeRoy (2019): Aquatic–terrestrial interactions: Mosaics of intermittency, interconnectivity and temporality. In PDF, Functional Ecology, 33: 1583–1585.
See also here.

T.L.F. Leung (2015): Fossils of parasites: what can the fossil record tell us about the evolution of parasitism? In PDF, Biol. Rev. See also here (abstract).

S. Lev-Yadun (2016): Plants are not sitting ducks waiting for herbivores to eat them. In PDF, Plant Signaling & Behavior, 11. See also here.

F.-Y. Li et al. (2024): Arthropod coprolites and wound reaction in the late Paleozoic climbing fern Hansopteris. Free access, Palaeoentomology, 7: 628–637. DOI: 10.11646/palaeoentomology.7.5.6 .
"... Interactions between arthropods and plants have been documented extensively in late Paleozoic trees and ground cover plants, but they have rarely been recorded in late Paleozoic climbers
[...] This discovery provides an informative example of arthropod herbivory on late Paleozoic climbers and sheds light on how the host plant responded during the early stage of injury ..."

Ronald J. Litwin, Robert E. Weems, and Thomas R. Holtz, Jr., U.S. Geological Survey (USGS), Eastern Publications Group Web Team: Dinosaurs: Facts and Fiction, What did dinosaurs eat? Easy to understand contribution.

Q. Liu et al. (2018): High niche diversity in Mesozoic pollinating lacewings. Open access, Nature Communications, 9: 3793.

X. Liu et al. (2018): Liverwort Mimesis in a Cretaceous Lacewing Larva. Open access, Current Biology, 28: 1475-1481.
Note figure 3: Reconstruction of two larvae resting on liverworts.

V.S.P. Loinaze et al. (2019): Palaeobotany and palynology of coprolites from the Late Triassic Chañares Formation of Argentina: implications for vegetation provinces and the diet of dicynodonts. In PDF, Palaeogeography, Palaeoclimatology, Palaeoecology. See also here and there.

Spencer G. Lucas et al. Re-evaluation of alleged bees´ nests from the Upper Triassic of Arizona.

E.D. Lukashevich (2023): Where the Immatures of Triassic Diptera Developed. Free access, Diversity, 15, 582. https://doi.org/10.3390/d15040582

S.A. Maccracken et al. (2022): Insect herbivory on Catula gettyi gen. et sp. nov. (Lauraceae) from the Kaiparowits Formation (Late Cretaceous, Utah, USA). Open access, PLoS ONE 17: e0261397.

! J.C. Mallon et al. (2013): Feeding height stratification among the herbivorous dinosaurs from the Dinosaur Park Formation (upper Campanian) of Alberta, Canada. BMC Ecology.

A.C. Mancuso and C.A. Marsicano (2008): Paleoenvironments and taphonomy of a Triassic lacustrine system (Los Rastros Formation, central-western Argentina). In PDF, Palaios, 23: 535–547. See also here.

Adriana C. Mancuso et al. (2007): The Triassic insect fauna from the Los Rastros Formation (Bermejo Basin), La Rioja Province (Argentina): its context, taphonomy and paleobiology. Paleobiological reconstruction in fig. 6.

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Note figure 5: Time-calibrated phylogeny showing the origins of major clades with herbivory across the Permo-Carboniferous.

N.P. Maslova et al. (2016): Phytopathology in fossil plants: New data, questions of classification. In PDF, Paleontological Journal, 50: 202–208.

M.R. McCurry et al. (2022): A Lagerstätte from Australia provides insight into the nature of Miocene mesic ecosystems. Free access, Sci. Adv., 8.
Note fig. 3H: Rugulatisporites trophus showing the imprint of exine.
Fig. 3I: Rugulatisporites sp. with both exine (arrowheads) and intine steinkern (S).

! J.C. McElwain et al. (2024): Functional traits of fossil plants. Open access, New Phytologist.
Note figure 2: Examples of fossil plant functional traits.
Figure 4: A ranked list of paleo-functional traits that can be applied to fossil plants.
"What plant remnants have withstood taphonomic filtering, fragmentation, and alteration in their journey to become part of the fossil record provide unique information on how plants functioned in paleo-ecosystems through their traits. Plant traits are measurable morphological, anatomical, physiological, biochemical, or phenological characteristics
[...] We demonstrate how valuable inferences on paleo-ecosystem processes (pollination biology, herbivory), past nutrient cycles, paleobiogeography, paleo-demography (life history), and Earth system history can be derived through the application of paleo-functional traits to fossil plants ..."

Duane D. McKenna et al. (2009): Temporal lags and overlap in the diversification of weevils and flowering plants. PDF file, PNAS, 106: 7083-7088. See also here (abstract).

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See here and there as well.

! S. McLoughlin and A.A. Santos (2024): Excavating the fossil record for evidence of leaf mining. Open access, New Phytologist.
Note figure 1: Key events in the evolution of the leaf-mining strategy with representative illustrations of fossilized mine types through geological time.

S. McLoughlin and C. Mays (2022): Synchrotron X-ray imaging reveals the three-dimensional architecture of beetle borings (Dekosichnus meniscatus) in Middle–Late Jurassic araucarian conifer wood from Argentina. Open access, Review of Palaeobotany and Palynology, 297.

! S. McLoughlin et al. (2021): Neutron tomography, fluorescence and transmitted light microscopy reveal new insect damage, fungi and plant organ associations in the Late Cretaceous floras of Sweden. Open access, GFF, 143: 248-276.

! S. McLoughlin et al. (2021): Arthropod interactions with the Permian Glossopteris flora. In PDF, Journal of Palaeosciences, 70: 43-133.

! S. McLoughlin (2020): Marine and terrestrial invertebrate borings and fungal damage in Paleogene fossil woods from Seymour Island, Antarctica. In PDF, GFF, 122.
See also here.

S. McLoughlin and B. Bomfleur (2016): Biotic interactions in an exceptionally well preserved osmundaceous fern rhizome from the Early Jurassic of Sweden. Palaeogeography, Palaeoclimatology, Palaeoecology.

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See also here.

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John M. Miller (2006), School of Pure and Applied Sciences, University of the South Pacific (USP):
! Origin of Angiosperms. Go to: Insect-Plant Mutualisms.
Still available via Internet Archive Wayback Machine.

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A.L. Möller et al. (2017): High richness of insect herbivory from the early Miocene Hindon Maar crater, Otago, New Zealand. Free access, PeerJ, DOI 10.7717/peerj.2985.

Sebastian Molnar, Department of Zoology, University of British Columbia, Vancouver: Evolution and the Origins of Life. A directory of introductions concerning evolution, with a bias to Plant Biology and Evolution. Excellent examples about how evolution works can be seen from the plant world. Go to: Plant Insect Resistance.

Alan V. & Anne Morgan, Department of Earth Sciences and Quaternary Sciences Institute, University of Waterloo, Ontario: The Use of Fossil Coleoptera.

Laboratory of Arthropods, Palaeontological Institute, Russian Academy of Sciences, Moscow. Provided by the Internet Archive´s Wayback Machine.
Publications. Pdf files, free download.

Laboratory of Arthropods, Palaeontological Institute, Russian Academy of Sciences, Moscow: Palaeoentomology in Russia. Go to: ECOLOGICAL HISTORY OF THE TERRESTRIAL INSECTS (by V.V. Zherikhin).

G.E. Mustoe (2007): Coevolution of cycads and dinosaurs. Cycad Newsletter.

Nalini M. Nadkarni, Evergreen State College, Olympia, WA: Plant-Animal Interactions. Bibliographic citations on plant-animal interactions.
Still available by the Internet Archive´s Wayback Machine.

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! D. Naware et al. (2024): Patterns of variation in fleshy diaspore size and abundance from Late Triassic–Oligocene. Open access, Biological Reviews, 99: 430-457.
Note figure 2: Genus richness of seed plants with fleshy and non-fleshy diaspores from Late Triassic to Oligocene across mid- to high latitudes and low latitudes.
"... Vertebrate-mediated seed dispersal is a common attribute of many living plants, and variation in the size and abundance of fleshy diaspores is influenced by regional climate and by the nature of vertebrate seed dispersers among present-day floras.
[...] We present a new data set of more than 800 georeferenced fossil diaspore occurrences spanning the Triassic–Oligocene, across low to mid- to high palaeolatitudes ..."

A. Nel et al. (2014): Exceptionally preserved insect fossils in the Late Jurassic lagoon of Orbagnoux (Rhone Valley, France). Open access, PeerJ.

Dan Nickrent, Department of Plant Biology, Southern Illinois University, Carbondale: The Parasitic Plant Connection. A repository of information on parasitic plants.

T. Nyman et al. (2012): Climate-driven diversity dynamics in plants and plant-feeding insects. Free access, Ecology Letters, 14: 1-10.

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F. Parisi et al.(2018): Linking deadwood traits with saproxylic invertebrates and fungi in European forests - a review. Free access, iForest 11: 423-436.

M.R. Pearson et al. (2013): Reconstructing the diversity of early terrestrial herbivorous tetrapods. In PDF, Palaeogeography, Palaeoclimatology, Palaeoecology, 372: 2-49.
See also here.

E. Peñalver et al. (2024): Early detritivory and sedimentivory in insects based on in situ gut contents from Triassic aquatic nymphs. Free access, Papers in Palaeontology, 9. e1478.

! E. Peñalver et al. (2012): Thrips pollination of Mesozoic gymnosperms. In PDF, PNAS, 109: 8623-8628. See also here.

D.M. Percy et al. (2004): Plant-insect interactions: double-dating associated insect and plant lineages reveals asynchronous radiations. Frfee access, Journal Article Plant–Insect Interactions: Double-Dating Associated Insect and Plant Lineages Reveals Asynchronous Radiations Diana M Percy, Roderic D M Page, Quentin C B Cronk Systematic Biology, 53: 120-127.

! D. Peris et al. (2017): False Blister Beetles and the Expansion of Gymnosperm-Insect Pollination Modes before Angiosperm Dominance. In PDF, Current Biology, 27. See also here.

V. Perrichot and V. Girard (2009): A unique piece of amber and the complexity of ancient forest ecosystems. PDF file, Palaios, 24: 137-139.

Pflanzenforschung.de (in German, sponsored by Bundesministerium für Bildung und Forschung):
Schnappschuss aus der Urzeit Insektenbestäubung doch keine Erfindung der Blütenpflanzen?

! M. Philippe et al. (2022): Life in the woods: Taphonomic evolution of a diverse saproxylic community within fossil woods from Upper Cretaceous submarine mass flow deposits (Mzamba Formation, southeast Africa). Gondwana Research, 109: 113–133. See also here.
Note fig. 5: Summary of the taphonomic pathways experienced by the Mzamba Formation fossil woods indicating the range of biotic interactions in various environmental settings.

S. Pincebourde et al. (2016): Plant-Insect Interactions in a Changing World. In PDF.

G. Poinar (2019): Associations between Fossil Beetles and Other Organisms. Free access, Geosciences, 9.
Note figure 22: The platypodine, Palaeotylus femoralis (Coleoptera: Curculionidae: Platypodinae) covered with mycelium, conidiophores and conidia of the ambrosia fungus, Paleoambrosia entomophila (Ophiostomatales: Ophiostomataceae) in Burmese amber.
Note figure 27: Ptilodactylid (Coleoptera: Ptilodactylidae) beetle with attached pollinarium (arrow) of Annulites mexicana (Angiospermae: Orchidaceae) in Mexican amber.

George Poinar and Greg Poinar (2018): The antiquity of floral secretory tissues that provide today’s fragrances. Abstract, Historical Biology. See also:
Schnupperten schon Dinos Blumenduft? Kreidezeitliche Blütenpflanzen könnten bereits Düfte produziert haben. In German, Scinexx.de.

G. Poinar et al. (2016): Fossil species of Boehmerieae Gaudich. (Urticaceae) in Dominican and Mexican amber: A new genus (Ekrixanthera) and two new species with anemophilous pollination by explosive pollen release, and possible lepidopteran herbivory. In PDF, Botany.

! C. Pott et al. (2012): Trichomes on the leaves of Anomozamites villosus sp. nov. (Bennettitales) from the Daohugou beds (Middle Jurassic), Inner Mongolia, China: Mechanical defence against herbivorous arthropods. In PDF, Review of Palaeobotany and Palynology, 169: 48-60.
See also here.

! C. Pott et al. (2008): Fossil Insect Eggs and Ovipositional Damage on Bennettitalean Leaf Cuticles from the Carnian (Upper Triassic) of Austria. In PDF, Journal of Paleontology, 82: 778-789. See also here.

A. Prado (2011): The Cycad Herbivores. PDF file, Bulletin de la Société d´entomologie du Québec, Antennae, 18.

Vandana Prasad, Caroline A.E. Strömberg, Habib Alimohammadian, and Ashok Sahni: Dinosaur Coprolites and the Early Evolution of Grasses and Grazers. Abstract, Science, November 18, 2005: 1177-1180. Silica particles from grass in fossil dung from Cretaceous sauropods suggest that grasses evolved earlier than had been thought, providing food for dinosaurs and early mammals. See also here (S. Perkins, Sciencenews), and there. (by Andreas Jahn, Die Zeit, November 11, 2005; in German).

R. Prevec et al. (2009): Portrait of a Gondwanan ecosystem: A new late Permian fossil locality from KwaZulu-Natal, South Africa. Abstract, Review of Palaeobotany and Palynology, 156: 454-493. See also here, or there (PDF files).

J. Prokop et al. (2023): Diversity, Form, and Postembryonic Development of Paleozoic Insects. Free access, Annual Review of Entomology, 68: 401-429.
Note figure 1: Timeline for the early fossil record of hexapods. (a) Major Paleozoic localities and their paleogeographical positions.

M. Qvarnström et al. (2024): Digestive contents and food webs record the advent of dinosaur supremacy. Open access, Nature, 636: 397-403.
See here as well.

! M. Qvarnström et al. (2019): Beetle-bearing coprolites possibly reveal the diet of a Late Triassic dinosauriform. Open access, R. Soc. open sci., 6: 181042.

A. Radwanski (2009): "Phoenix szaferi" (palm fruitbodies) reinterpreted as traces of wood-boring teredinid bivalves from the Lower Oligocene (Rupelian) of the Tatra Mountains, Poland. PDF file, Acta Palaeobotanica, 49: 279-286.
See also here.

J. Rajchel and A. Uchman (1998): Insect borings in Oligocene wood, Kliwa Sandstone, Outer Carpathians, Poland. Abstract, Annales Societatis Geologorum Poloniae, 68: 219-224. See also here (in PDF).

Robert Randell, British Chalk Fossils: Driftwood with Teredo borings.

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D. Ren (1998): Flower-Associated Brachycera Flies as Fossil Evidence for Jurassic Angiosperm Origins. In PDF.
This expired link is still available through the Internet Archive´s Wayback Machine.
See also here.

S.S. Renner (2023): A time tree for the evolution of insect, vertebrate, wind, and water pollination in the angiosperms. Free access, New Phytologist, 240: 464–465.
This article is a Commentary on Stephens et al. (2023), 240: 880–891.

Authored by the The Rhynie Chert Research Group, University of Aberdeen, with contributions and support by the Palaeobotanical Research Group, University of Münster, Germany, the Centre for Palynology, University of Sheffield, The Natural History Museum, London, and The Royal Museum, National Museums of Scotland: The Biota of Early Terrestrial Ecosystems, The Rhynie Chert. A resource site for students and teachers covering many aspects of the present knowledge of this unique geological deposit (including a glossary and bibliography pages). Go to: Evidence for Plant/Animal Interactions.

E.M. Roberts et al. (2016): Oligocene Termite Nests with In Situ Fungus Gardens from the Rukwa Rift Basin, Tanzania, Support a Paleogene African Origin for Insect Agriculture. PLoS ONE, 11.

! N. Robin et al. (2018): The oldest shipworms (Bivalvia, Pholadoidea, Teredinidae) preserved with soft parts (western France): insights into the fossil record and evolution of Pholadoidea. In PDF, Palaeontology, 61: 905-918. See also here.
"... We report, from mid-Cretaceous logs of the Envigne Valley, France, exceptionally preserved wood-boring bivalves with silicified soft parts
[...] we report both the molluscs’ anatomy and their distribution inside the wood (using computed tomography)..."

E.A. Robinson et al. (2012): A meta-analytical review of the effects of elevated CO₂ on plant-arthropod interactions highlights the importance of interacting environmental and biological variables. In PDF, New Phytologist, 194: 321-336. See also here (abstract).

J.M. Robledo et al. (2015): Phytophagy on fossil ferns from Argentina (Palo Pintado Formation, late Miocene): a review of their fossil record and ichnotaxonomy. In PDF, Rev. bras. paleontol., 18: 225-238. See also here.

I. Rodríguez-Barreiro et al. (2023): Palynological reconstruction of the habitat and diet of Iguanodon bernissartensis in the Lower Cretaceous Morella Formation, NE Iberian Peninsula. Free access, Cretaceous Research, 156.
Note figure 1: Paleogeographical map of western Europe for the late Barremian-early Aptian interval.
"... To elucidate the paleoenvironment of the Palau-3 site, a palynological analysis was carried out on matrix samples collected from around the skeleton. The palynological assemblage is found to correspond to an upper Barremian age.
[...] the palynoflora is mostly dominated by the Cheirolepidiaceae conifer (Classopollis) and Anemiaceae fern (mainly Cicatricosisporites) families. The absence of angiosperm pollen in this flora is also noteworthy ..."

! E. Romero-Lebrón et al. (2022): Endophytic insect oviposition traces in deep time. In PDF, Palaeogeography, Palaeoclimatology, Palaeoecology, 590.
See also here.

R. Rößler et al. (2014): Fraßgalerien von Mikroarthropoden in Koniferenhölzern des frühen Perms von Crock, Thüringen. PDF file, in German. Veröff. Museum für Naturkunde Chemnitz, 37.

! R. Rößler et al. (2012): The largest calamite and its growth architecture - Arthropitys bistriata from the Early Permian Petrified Forest of Chemnitz. In PDF, Review of Palaeobotany and Palynology, 185: 64-78.
The link is to a version archived by the Internet Archive´s Wayback Machine.

A.J. Sagasti et al. (2025): Rhexoxylon piatnitzkyi and its ancient adversaries: deciphering plant-beetle interactions and its palaeoecological significance in the Ischigualasto Formation (Upper Triassic, Argentina). Free access, Historical Biology, 37, 1078–1093.

S. Salzman et al. (2020): An ancient push-pull pollination mechanism in cycads. In PDF, Sci. Adv., 6: eaay6169. See also here.
Note fig. 4: Time line and plant behaviors responsible for push-pull pollination.

P.M. Sander et al. (2011): Biology of the sauropod dinosaurs: the evolution of gigantism. In PDF, Biol. Rev., 86: 117-155. Worth checking out: "Dentition and digestive system" (PDF page 129).
See also here.

P.M. Sander et al. (2010): Mesozoic plants and dinosaur herbivory. PDF file. In: Gee, C T. Plants in Mesozoic time: Morphological innovations, phylogeny, ecosystems. Bloomington, 331-359.
Note Fig. 14.7B: Putative stomach contents of the hadrosaur Corythosaurus casuarius. Close-up showing fragments of plant material in the matrix.

A.A. Santos et al. (2024): Plant-insect interactions in the mid-Cretaceous paleotropical El Chango Lagerstätte (Cintalapa Fm., Mexico)—patterns of herbivory during the Angiosperm Terrestrial Revolution. Open access, Front. Ecol. Evol., 12. doi: 10.3389/fevo.2024.1381539.

A.A. Santos et al. (2023): Plant–Insect Interactions on Aquatic and Terrestrial Angiosperms from the Latest Albian (Early Cretaceous) of Estercuel (Northeastern Spain) and Their Paleoenvironmental Implications. Open access, Plants, 12.

A.A. Santos et al. (2022): A Robinson Crusoe story in the fossil record: Plant-insect interactions from a Middle Jurassic ephemeral volcanic island (Eastern Spain). Free access, Palaeogeography, Palaeoclimatology, Palaeoecology, 583.

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S.R. Schachat 2022): Examining paleobotanical databases: Revisiting trends in angiosperm folivory and unlocking the paleoecological promise of propensity score matching and specification curve analysis. Free access, Front. Ecol. Evol., 10: 951547. doi: 10.3389/fevo.2022.951547.
"... Long-term trends in the fossil record of plants, encompassing their interactions with herbivores and with the environment, are of the utmost relevance for predicting global change
[...] in contrast to modern ecology and unlike various other paleontological disciplines, paleobotany has a limited history of “big data” meta-analyses.
[...] Here I demonstrate the importance of analytical best practices by applying them to a recent meta-analysis of fossil angiosperms. ..."

S.R. Schachat et al. (2022): Generating and testing hypotheses about the fossil record of insect herbivory with a theoretical ecospace. In PDF, Review of Palaeobotany and Palynology, 297. See also here.
"... a discussion of the most appropriate uses of a theoretical ecospace for insect herbivory, with the overlapping damage type diversities of Paleozoic gymnosperms and Cenozoic angiosperms as a brief case study. ..."

S.R. Schachat et al. (2021): Linking host plants to damage types in the fossil record of insect herbivory. In PDF, bioRxiv. See also here.
"... We evaluate a range of methods for characterizing the relationships between damage types and host plants by performing resampling and subsampling exercises on a variety of datasets. ..."

S.R. Schachat et al. (2020): Sampling fossil floras for the study of insect herbivory: how many leaves is enough? Fossil Record, 23: 15–32.
See also here.

S.R. Schachat et al. (2020): Sampling fossil floras for the study of insect herbivory: how many leaves is enough? In PDF, Mitteilungen aus dem Museum für Naturkunde in Berlin. Fossil Record, 23: 15-32. See also here.

S.R. Schachat et al. (2014): Plant-Insect Interactions from Early Permian (Kungurian) Colwell Creek Pond, North-Central Texas: The Early Spread of Herbivory in Riparian Environments. International Journal of Plant Sciences, 175.

H. Martin Schaefer et al. (2004): How plant-animal interactions signal new insights in communication. PDF file, Trends in Ecology and Evolution, Vol. 19.

F.-J. Scharfenberg et al. (2022): A possible terrestrial egg cluster in driftwood from the Lower Jurassic (Late Pliensbachian) of Buttenheim (Franconia, Germany). In PDF, Zitteliana, 96: 135–143.

D.W. Schemske et al. (2009): Is There a Latitudinal Gradient in the Importance of Biotic Interactions? In PDF, Annu. Rev. Ecol. Evol. Syst.,40: 245-269.

Claudia Schülke, FAZ, Germany: Palmenhaus, Lebende und versteinerte Pflanzen aus der Zeit der Saurier. In German.

A.C. Scott et al.(2004): Evidence of plant-insect interactions in the Upper Triassic Molteno Formation of South Africa. PDF file, Journal of the Geological Society, London, 161: 401-410.
See also here.

Scott et al. (1994): The fossil record of leaves with galls. PDF file, In: Michele A.J. Williams (ed.): Plant Galls.

! A.C. Scott et al. (1992): Interaction and coevolution of plants and arthropods during the Palaeozoic and Mesozoic. In PDF, Philosophical Transactions of the Royal Society, B. See also here.

J.O. Shaw et al. (2021): Disentangling ecological and taphonomic signals in ancient food webs. Free access, Paleobiology, 47: 85–401.

D.E. Shcherbakov (2008): Madygen, Triassic Lagerstätte number one, before and after Sharov. PDF file, Alavesia, 2: 113-124. Provided by the Internet Archive´s Wayback Machine.

S.M. Slater et al. (2018): Dinosaur-plant interactions within a Middle Jurassic ecosystem—palynology of the Burniston Bay dinosaur footprint locality, Yorkshire, UK. Free access, Palaeobiodiversity and Palaeoenvironments, 98: 139–151.

B.J. Slater (2014): Cryptic diversity of a Glossopteris forest: the Permian Prince Charles Mountains Floras, Antarctica. In PDF, thesis, submitted to the University of Birmingham.

B.J. Slater et al. (2012): Animal-plant interactions in a Middle Permian permineralised peat of the Bainmedart Coal Measures, Prince Charles Mountains, Antarctica. Palaeogeography, Palaeoclimatology, Palaeoecology, 363-364: 109-126.

National Museum of Natural History, Smithsonian Institution, Washington, D.C.: Ancient Insect-Plant Relationship Persists through Time.

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Scientists Find a Fossilized Ancestor of 'Dinosaur Food' (The New York Times).

! N. Stamp (2003): Out of the quagmire of plant defense hypotheses. PDF file, Quarterly Review of Biology 78: 23-55.
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M. Steinthorsdottir et al. (2015): Evidence for insect and annelid activity across the Triassic-Jurassic transition of east Greenland. Palaios, 30: 597-607.

! R.E. Stephens et al. (2023): Insect pollination for most of angiosperm evolutionary history. Open access, New Phytologist, 240: 880–891.
"... Most contemporary angiosperms (flowering plants) are insect pollinated, but pollination by wind, water or vertebrates occurs in many lineages.
[...] We use a robust, dated phylogeny and species-level sampling across all angiosperm families to model the evolution of pollination modes
[...] Angiosperms were ancestrally insect pollinated, and insects have pollinated angiosperms for c. 86% of angiosperm evolutionary history ..."

P. Steuer (2010): Limitation of body mass of herbivores - Allometry of food quality and of digestive aspects. In PDF, Dissertation, Rheinische Friedrich-Wilhelms-Universität Bonn, Germany.

Hans Steur, Ellecom, The Netherlands: Hans´ Paleobotany Pages. Plant life from the Silurian to the Cretaceous. Go to:
Little animals in the Coal Swamp.

Sharon Y. Strauss and Rebecca E. Irwin (2004): Ecological and evolutionary consequences of multispecies plant-animal interactions. PDF file, Annu. Rev. Ecol. Evol. Syst., 35: 435-66.
This expired link is available through the Internet Archive´s Wayback Machine.

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G.W. Stull et al. (2013): The "Seeds" on Padgettia readi are Insect Galls: Reassignment of the Plant to Odontopteris, the Gall to Ovofoligallites N. Gen., and the Evolutionary Implications Thereof. In PDF, Journal of Paleontology, 87: 217-231.

J.I. Sutherland (2003): Miocene petrified wood and associated borings and termite faecal pellets from Hukatere Peninsula, Kaipara Harbour, North Auckland, New Zealand. In PDF, Journal of the Royal Society of New Zealand, 33: 395-414.

! A. Swain (2024): Drivers of herbivore diversity decoupled by leveraging the fossil record. Open access, Proceedings of the National Academy of Sciences, U.S.A., 120. https://doi.org/10.1073/pnas.2311010120
"... Damage Types [...] denote functional classifications of insect herbivory on plants. These have remained consistently the same across hundreds of millions of years and therefore, can be used for comparisons across geographical space and geological time despite species turnovers ..."

A. Swain et al. (2022): Sampling bias and the robustness of ecological metrics for plant-damage-type association networks. In PDF, bioRxiv.
See also here.
"... Using proxy data of insect herbivore damage (denoted by the damage type or DT) preserved on fossil leaves, functional bipartite network representations provide insights into how plant–insect associations depend on geological time, paleogeographical space, and environmental variables such as temperature and precipitation. ..."

A. Swain et al. (2022): Understanding the ecology of host plant–insect herbivore interactions in the fossil record through bipartite networks—Corrigendum. Free access, Paleobiology, 48: 353–355.

A. Swain et al. (2021): Understanding the ecology of host plant–insect herbivore interactions in the fossil record through bipartite networks. IN PDF, Paleobiology. See also here.

R.E. Taggart and A.T. Cross (1997): The relationship between land plant diversity and productivity and patterns of dinosaur herbivory. PDF file, p.403-416 in Wolberg, D.L., E. Stump, and G.D. Rosenberg (eds.), Proceedings of the Dinofest International Symposium, 1997, Arizona State University (Tempe). Academy of Natural Sciences, Philadelphia. 587 pp.
Still available via Internet Archive Wayback Machine.

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P.D. Taylor & Olev Vinn (2006): Convergent morphology in small spiral worm tubes ("Spirorbis") and its palaeoenvironmental implications. Abstract, Journal of the Geological Society, 163: 225-228.

! T.N. Taylor and M. Krings (2005): Fossil microorganisms and land plants: Associations and interactions. PDF file, Symbiosis, 40: 119-135.
This expired link is now available through the Internet Archive´s Wayback Machine.
See also here.

taz (a German newspaper; November 19, 2022): Versteinerte Welten:
„Wie ein Foto aus der Urzeit“ (in German).
Paläobotaniker interessieren sich für die urzeitliche Pflanzenwelt. Die Fossilien von Blättern und Stämmen liefern Einblicke in untergegangene Welten.

L.B. Thien et al. (2000): New Perspectives on the Pollination Biology of Basal Angiosperms. Abstract, International Journal of Plant Sciences, 161.

Teaching Biology:
Plant-Arthropod Interactions in the Fossil Record.
A version archived by the Internet Archive´s Wayback Machine.

A.S. Thorpe et al. (2011): Interactions among plants and evolution. Free access, Journal of Ecology, 99: 729-740.

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! B.H. Tiffney (1988): Conceptual advances in paleobotany. In PDF, Journal of Geological Education: September 1988, Vol. 36, No. 4, pp. 221-226. See also here.

Bruce H. Tiffney, UC Santa Barbara: Tracking the Course of Evolution (hosted by UCMP), Plants and Their Predators Through Time. A ramble through the positive and negative (from the plant's point of view) interactions between terrestrial plants and those insects and vertebrates who feed upon them. Examine TWO GRAPHICS showing (1) a simple time line of plant predation and (2) the relationship of plant diversification and the phylogeny of vertebrate plant predators.

Bruce H. Tiffney, University of California, Santa Barbara (Encyclopedia of Dinosaurs): Dinosaurs and Plants.
This expired link is still available through the Internet Archive´s Wayback Machine.

H.-A. Turner et al. (2024): Comprehensive survey of Early to Middle Triassic Gondwanan floras reveals under-representation of plant–arthropod interactions. In PDF, Front. Ecol. Evol. 12: 1419254. doi: 10.3389/fevo.2024.1419254.

! Thomas van de Kamp et al. (2018): Parasitoid biology preserved in mineralized fossils. Open access, Nature Communications, 9.
Using high-throughput synchrotron X-ray microtomography 55 parasitation events by four wasp species were identified from the Paleogene of France.

! C.J. van der Kooi and J. Ollerton (2020): The origins of flowering plants and pollinators. Free access, Science, 368: 1306-1308.
See also here (in PDF).

Diego P. Vázquez et al. (2009): Uniting pattern and process in plant-animal mutualistic networks: a review. PDF file, Annals of Botany, 103: 1445-1457. See also here (abstract).

G.J. Vermeij (2016): Plant defences on land and in water: why are they so different? Open access, Annals of Botany, 117: 1099–1109.

Y.P. Veenma et al. (2023): Biogeomorphology of Ireland's oldest fossil forest: Plant-sediment and plant-animal interactions recorded in the Late Devonian Harrylock Formation, Co. Wexford. Free access, Palaeogeography, Palaeoclimatology, Palaeoecology, 621.
Note figure 6, 7: Lignophyte root systems within the lower Sandeel Bay plant bed.
"... new evidence for early plant-sediment interactions from the Late Devonian (Famennian) Harrylock Formation (County Wexford, Ireland), which hosts standing trees that represent Ireland's earliest known fossil forest.
[...] Fossilized driftwood preserved in the lacustrine facies contains the earliest evidence for arthropod(?) borings in large vascular plant debris. Together these early examples show that plant-sediment and plant-animal interactions, frequently recorded in Carboniferous strata, were already in existence by the Devonian ..."

! Y. Wang et al. (2012): Jurassic mimicry between a hangingfly and a ginkgo from China. In PDF, Proc. Nat. Acad. Sci. USA, 109: 20514-20519. See also here.

Y. Wang et al. (2010): Ancient pinnate leaf mimesis among lacewings. In PDF, PNAS, 107: 16212-16215.

Jun Wang et al. (2009) Permian Circulipuncturites discinisporis Labandeira, Wang, Zhang, Bek et Pfefferkorn gen. et spec. nov. (formerly Discinispora) from China, an ichnotaxon of a punch-and-sucking insect on Noeggerathialean spores. PDF file, Review of Palaeobotany and Palynology, 156: 77-282.
Snapshot taken by the Internet Archive´s Wayback Machine.

! X. Wang et al. (2009): The Triassic Guanling fossil Group - A key GeoPark from Barren Mountain, Guizhou Province, China. PDF file.
! Note figure 29: A colony of Traumatocrinus sp. attached by root cirri to an agatized piece of driftwood!
PDF still available via Internet Archive Wayback Machine.

T. Wappler et al. (2015): Plant-insect interactions from Middle Triassic (late Ladinian) of Monte Agnello (Dolomites, N-Italy) - initial pattern and response to abiotic environmental perturbations. PeerJ.

P. Ward et al. (2006): Confirmation of Romer´s Gap as a low oxygen interval constraining the timing of initial arthropod and vertebrate terrestrialization. In PDF, PNAS, see also here.

National Museum of Natural History, Smithsonian Institution, Washington, DC: Ancient Insect-Plant Relationship Persists through Time.

Charles E. Weber, Hendersonville NC: DID THE WOOD ROACH OR PROTOTERMITE CAUSE THE PERMIAN - TRIASSIC COAL HIATUS?

Biology Department, Western Washington University, Bellingham, Washington:
! Coevolution of Plants and Insects. Powerpoint presentation. See also here, or there.

W.C. Wetzel et al. (2023): Variability in plant–herbivore interactions. Free access, Annual Review of Ecology, Evolution, and Systematics, 54: 451-474.
"... We review the literature with the goal of showing how variability-explicit research expands our perspective on plant– herbivore ecology and evolution. We first clarify terminology for describing variation and then review patterns, causes, and consequences of variation in herbivory across scales of space, time, and biological organization ..."

! B.M. Wiegmann et al. (2009): Holometabolous insects (Holometabola). PDF file, In: S.B. Hedges and S. Kumar (eds.): The Timetree of Life (see here).

! Wikipedia, the free encyclopedia:
Plant defense against herbivory.
Herbivore adaptations to plant defense.
Herbivore.
Co-evolution.
Insect.
See also Wikipedia Germany (in German):
Pflanzliche Abwehr von Herbivoren.
Koevolution.
Insekten.

Wikipedia, the free encyclopedia:
Gall.
Pflanzengalle (in German).

P. Wilf (2008): Insect-damaged fossil leaves record food web response to ancient climate change and extinction. In PDF, New Phytologist.

Peter Wilf et al. (2006): Decoupled Plant and Insect Diversity After the End-Cretaceous Extinction. PDF file, Science, 313.

Peter Wilf, Department of Geosciences, Pennsylvania State University, University Park, PA: Commentary and media items, and online accessable publications.

Peter Wilf, Museum of Paleontology and Department of Geological Sciences, University of Michigan, Ann Arbor: Ancient insect-plant relationship persists through time. Smithsonian National Museum of Natural History Highlight, October, 2000. See also: Commentary, reporting, and interviews about Peter Wilf's research.

P. Wilf and C. C. Labandeira, Response of plant-insect associations to Paleocene-Eocene warming. From Science (1999), 284:2153-2156. You can view and print the document using Adobe Acrobat Reader.

P. Wilf et al. (2001): Insect herbivory, plant defense, and early Cenozoic climate change. Free access, Proceedings of the National Academy of Sciences USA, 98: 6221-6226.
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Peter Wilf et al. (1998): Portrait of a Late Paleocene (Early Clarkforkian) Terrestrial Ecosystem: Big Multi Quarry and Associated Strata, Washakie Basin, Southwestern Wyoming. PDF file, Palaios, 13: 514-532.

D.M. Wilkinson and T.N. Sherratt (2016): Why is the world green? The interactions of top-down and bottom-up processes in terrestrial vegetation ecology. In PDF, Plant Ecology & Diversity, 9: 127-140. See also here.

S.L. Wing et al. (2009): Late Paleocene fossils from the Cerrejón Formation, Colombia, are the earliest record of Neotropical rainforest. Free access, PNAS, 106: 18627-18632.
"... we report on an ˜58-my-old flora from the Cerrejón Formation of Colombia (paleolatitude ˜5 °N) that is the earliest megafossil record of Neotropical rainforest.
The low diversity of both plants and herbivorous insects in this Paleocene Neotropical rainforest may reflect an early stage in the diversification of the lineages that inhabit this biome, and/or a long recovery period from the terminal Cretaceous extinction ..."
Note as well:
No, Dinosaurs Did Not Trudge Through Thick Rainforests (by Riley Black, July 29, 2024; Smithsonian Magazine).

Isaak S. Winkler and Charles Mitter (2008): The phylogenetic dimension of insect-plant interactions: a review of recent evidence. PDF file. See also here.

M. Wuttke et al. (2024): Pollen-feeding in a giant pelobatid tadpole from the late Oligocene of Enspel, Germany. In PDF, Palaeobiodiversity and Palaeoenvironments, 104: 999–1026. See here as well.

M. Zaton et al. (2015): Comment on the paper of Gierlowski-Kordesch and Cassle "The "Spirorbis" problem revisited: Sedimentology and biology of microconchids in marine–nonmarine transitions" [Earth-Science Reviews, 148 (2015): 209–227]. In PDF, Earth-Science Reviews.

M. Zaton et al. (2012): Invasion of freshwater and variable marginal marine habitats by microconchid tubeworms - an evolutionary perspective. In PDF, Geobios, 45: 603-610. See also here.
Go to PDF page 5:
! Fig. 3 A, B. shows the earliest record of freshwater microconchids encrusting terrestrial plants (Drepanophycus) from the Lower Devonian (Lochkovian-Emsian) of Wyoming, USA.

X. Zhao et al. (2021): Early evolution of beetles regulated by the end-Permian deforestation. Free access, eLife. See also here (in PDF).
"... Our results suggest that xylophagous (feeding on or in wood) beetles probably played a key and underappreciated role in the Permian carbon cycle ..."

! T. Züst and A.A. Agrawal (2017): Trade-Offs Between Plant Growth and Defense Against Insect Herbivory: An Emerging Mechanistic Synthesis. Abstract, Annual Review of Plant Biology, 68: 513-534. See also here (in PDF).