370
Cressey R, Boxshall G (1989) Kabatarina pattersoni, a fossil parasitic copepod (Dichelesthiidae)
from a Lower Cretaceous fish. Micropaleontology 35:150–167
Cressey R, Patterson C (1973) Fossil parasitic copepods from a Lower Cretaceous fish. Science
180:1283–1285
Crossley SMG, George AL, Keller CJ (2009) A method for eradicating amphipod parasites
(Hyperiidae) from host jellyfish, Chrysaora fuscescens (Brandt, 1835), in a closed recirculating system. J Zoo Wildl Med 40:174–180
Dahms H-U (2004) Postembryonic apomorphies proving the monophyletic status of the Copepoda.
Zool Stud 43:446–453
De Baets K, Littlewood DTJ (2015) The importance of fossils in understanding the evolution of
parasites and their vectors. Adv Parasitol 90:1–51
De Baets K, Huntley JW, Klompmaker AA, Schiffbauer JD, Muscente AD (2021) The fossil record
of parasitism: Its extent and taphonomic constraints. In: De Baets K, Huntley JW (eds) The
evolution and fossil record of parasitism: Coevolution and paleoparasitological techniques.
Topics in Geobiology 50
Donoghue MJ, Doyle JA, Gauthier J, Kluge AG, Rowe T (1989) The importance of fossils in phylogeny reconstruction. Annu Rev Ecol Syst 20:431–460
Dreyer H, Wägele J (2001) Parasites of crustaceans (Isopoda:Bopyridae) evolved from fish parasites: molecular and morphological evidence. Zoology 103:157–178
Dreyer H, Wägele J-W (2002) The Scutocoxifera tax. nov. and the information content of nuclear
SSU rDNA sequences for reconstruction of isopod phylogeny (Peracarida: Isopoda). J Crustac
Biol 22:217–234
Dzik J (2008) Gill structure and relationships of the Triassic cycloid crustaceans. J Morphol
269(12):1501–1519
Edgecombe GD, Legg DA (2013) The arthropod fossil record. In: Arthropod biology and evolution. Springer, Berlin, pp 393–415
Etter W (2014) A well-preserved isopod from the Middle Jurassic of southern Germany and implications for the isopod fossil record. Palaeontology 57:931–949
Eyun S (2017) Phylogenomic analysis of Copepoda (Arthropoda, Crustacea) reveals unexpected
similarities with earlier proposed morphological phylogenies. BMC Evol Biol 17:23. https://
doi.org/10.1186/s12862- 017- 0883- 5
Feldmann RM (1998) Parasitic castration of the crab, Tumidocarcinus giganteus Glaessner, from
the Miocene of New Zealand: coevolution within the Crustacea. J Paleontol 72:493–498
Feldmann RM (2009) A new cirolanid isopod (Crustacea) from the Cretaceous of Lebanon: dermoliths document the pre-molt condition. J Crustac Biol 29:373–378
Feldmann RM, Tshudy DM, Thomson MR (1993) Late Cretaceous and Paleocene decapod crustaceans from James Ross Basin, Antarctic Peninsula. J Paleontol 67(S28):1–41
Gentil-Vasconcelos HC, Tavares-Dias M (2015) First study on infestation of Excorallana berbicensis (Isopoda: Corallanidae) on six fishes in a reservoir in Brazilian Amazon during dry and
rainy seasons. Lat Am J Aquat Res 43:936–943
Giribet G, Edgecombe GD (2013) The Arthropoda: a phylogenetic framework. In: Minelli A,
Boxshall GA, Fusco G (eds) Arthropod biology and evolution. Springer, Berlin, pp 17–40
Glenner H, Høeg JT (2002) A scenario for the evolution of the Rhizocephala. In: Modern
approaches to the study of Crustacea. Springer, Boston, MA, pp 301–310
Glenner H, Høeg JT, Grygier MJ, Fujita Y (2008) Induced metamorphosis in crustacean y-larvae:
towards a solution to a 100-year-old riddle. BMC Biol 6:21
Grygier MJ, Høeg JT (2005) Ascothoracida (ascothoracids). In: Rohde K (ed) Marine parasitology.
CABI Publishing, Wallingford, pp 149–154
Grygier MJ, Salvat MB (1984) Dendrogaster argentinensis, new species, a South American seastar parasite (Crustacea: Ascothoracida). Proc Biol Soc Wash 97:43–48
Gupta NS, Michels R, Briggs DE, Evershed RP, Pancost RD (2006) The organic preservation of
fossil arthropods: an experimental study. Proc R Soc Lond B 273(1602):2777–2783
J. T. Haug et al.
Cressey R, Boxshall G (1989) Kabatarina pattersoni, a fossil parasitic copepod (Dichelesthiidae)
from a Lower Cretaceous fish. Micropaleontology 35:150–167
Cressey R, Patterson C (1973) Fossil parasitic copepods from a Lower Cretaceous fish. Science
180:1283–1285
Crossley SMG, George AL, Keller CJ (2009) A method for eradicating amphipod parasites
(Hyperiidae) from host jellyfish, Chrysaora fuscescens (Brandt, 1835), in a closed recirculating system. J Zoo Wildl Med 40:174–180
Dahms H-U (2004) Postembryonic apomorphies proving the monophyletic status of the Copepoda.
Zool Stud 43:446–453
De Baets K, Littlewood DTJ (2015) The importance of fossils in understanding the evolution of
parasites and their vectors. Adv Parasitol 90:1–51
De Baets K, Huntley JW, Klompmaker AA, Schiffbauer JD, Muscente AD (2021) The fossil record
of parasitism: Its extent and taphonomic constraints. In: De Baets K, Huntley JW (eds) The
evolution and fossil record of parasitism: Coevolution and paleoparasitological techniques.
Topics in Geobiology 50
Donoghue MJ, Doyle JA, Gauthier J, Kluge AG, Rowe T (1989) The importance of fossils in phylogeny reconstruction. Annu Rev Ecol Syst 20:431–460
Dreyer H, Wägele J (2001) Parasites of crustaceans (Isopoda:Bopyridae) evolved from fish parasites: molecular and morphological evidence. Zoology 103:157–178
Dreyer H, Wägele J-W (2002) The Scutocoxifera tax. nov. and the information content of nuclear
SSU rDNA sequences for reconstruction of isopod phylogeny (Peracarida: Isopoda). J Crustac
Biol 22:217–234
Dzik J (2008) Gill structure and relationships of the Triassic cycloid crustaceans. J Morphol
269(12):1501–1519
Edgecombe GD, Legg DA (2013) The arthropod fossil record. In: Arthropod biology and evolution. Springer, Berlin, pp 393–415
Etter W (2014) A well-preserved isopod from the Middle Jurassic of southern Germany and implications for the isopod fossil record. Palaeontology 57:931–949
Eyun S (2017) Phylogenomic analysis of Copepoda (Arthropoda, Crustacea) reveals unexpected
similarities with earlier proposed morphological phylogenies. BMC Evol Biol 17:23. https://
doi.org/10.1186/s12862- 017- 0883- 5
Feldmann RM (1998) Parasitic castration of the crab, Tumidocarcinus giganteus Glaessner, from
the Miocene of New Zealand: coevolution within the Crustacea. J Paleontol 72:493–498
Feldmann RM (2009) A new cirolanid isopod (Crustacea) from the Cretaceous of Lebanon: dermoliths document the pre-molt condition. J Crustac Biol 29:373–378
Feldmann RM, Tshudy DM, Thomson MR (1993) Late Cretaceous and Paleocene decapod crustaceans from James Ross Basin, Antarctic Peninsula. J Paleontol 67(S28):1–41
Gentil-Vasconcelos HC, Tavares-Dias M (2015) First study on infestation of Excorallana berbicensis (Isopoda: Corallanidae) on six fishes in a reservoir in Brazilian Amazon during dry and
rainy seasons. Lat Am J Aquat Res 43:936–943
Giribet G, Edgecombe GD (2013) The Arthropoda: a phylogenetic framework. In: Minelli A,
Boxshall GA, Fusco G (eds) Arthropod biology and evolution. Springer, Berlin, pp 17–40
Glenner H, Høeg JT (2002) A scenario for the evolution of the Rhizocephala. In: Modern
approaches to the study of Crustacea. Springer, Boston, MA, pp 301–310
Glenner H, Høeg JT, Grygier MJ, Fujita Y (2008) Induced metamorphosis in crustacean y-larvae:
towards a solution to a 100-year-old riddle. BMC Biol 6:21
Grygier MJ, Høeg JT (2005) Ascothoracida (ascothoracids). In: Rohde K (ed) Marine parasitology.
CABI Publishing, Wallingford, pp 149–154
Grygier MJ, Salvat MB (1984) Dendrogaster argentinensis, new species, a South American seastar parasite (Crustacea: Ascothoracida). Proc Biol Soc Wash 97:43–48
Gupta NS, Michels R, Briggs DE, Evershed RP, Pancost RD (2006) The organic preservation of
fossil arthropods: an experimental study. Proc R Soc Lond B 273(1602):2777–2783
J. T. Haug et al.