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FIGURE 9. Otozamites douglasii 1 in Middle-Late Jurassic plant assemblages of the Catlins coast, New Zealand

FIGURE 9. Otozamites douglasii 1. Photographed in the field, Slope-04; 2. LX1231, Curio Bay; 3. LX656, Slope-01, with slightly auriculate acroscopic margin of the pinnule bases; 4. LX1191, Black Point, showing distinctly auriculate acroscopic margin of the pinnule bases; 5. LX1231, Curio Bay, with contracted basiscopic margin of the pinnule bases. All scale bars equal 10 mm.

FIGURE 8. Equisetum laterale. 1. Diaphragm, LX2684 in Middle-Late Jurassic plant assemblages of the Catlins coast, New Zealand

FIGURE 8. Equisetum laterale. 1. Diaphragm, LX2684, Otara-35; 2. Leaf sheath, LX1008, Owaka; 3. Possible rhi- zome, LX1066, Little Bay-01. All scale bars equal 10 mm.

FIGURE 20 in Middle-Late Jurassic plant assemblages of the Catlins coast, New Zealand

FIGURE 20. Pagiophyllum sp. 1. LX1142, Owaka; 2. LX1016, Little-03; 3. LX1023, Little-03. All scale bars equal 10 mm.

FIGURE 3 in Middle-Late Jurassic plant assemblages of the Catlins coast, New Zealand

FIGURE 3. Summary of the current understanding of stratigraphic relations of the fossil localities. These are simplified stratigraphic columns through the Slope Point Block and the Brothers Block (Pole, 2004) and the South Limb of the Southland Syncline (based on Speden, 1971). Pole (2004) proposed that all terrestrial sediments should be recognised as False Island Formation. For ease of comparison, the formations of Speden (1971) are indicated for the South Limb.

FIGURE 18 in Middle-Late Jurassic plant assemblages of the Catlins coast, New Zealand

FIGURE 18. Bellarinea richardsii, all Little Bay-01. 1. LX0676; 2. LX0675; 3. LX1275; 4. LX1130. All scale bars equal 10 mm.

FIGURE 11. Rintoulia pectinata 1. LX1029 in Middle-Late Jurassic plant assemblages of the Catlins coast, New Zealand

FIGURE 11. Rintoulia pectinata 1. LX1029, Little Bay-03; 2. LX1021, Little Bay-03; 3. LX669, Owaka. All scale bars equal 10 mm.

FIGURE 17. Elatocladus spp. 1 in Middle-Late Jurassic plant assemblages of the Catlins coast, New Zealand

FIGURE 17. Elatocladus spp. 1. Elatocladus sp. A, LX1054, Little Bay-01; 2. Elatocladus sp. A, LX1061, Little Bay-01; 3. Elatocladus sp. A, LX1131, Little Bay-01; 4. Elatocladus sp. A, LX1159, Little Bay-01; 5. Elatocladus sp. B, LX2077, Blue Cod Bay. All scale bars equal 10 mm.

FIGURE 15. Taeniopteris spatulata details. 1. LX1218 in Middle-Late Jurassic plant assemblages of the Catlins coast, New Zealand

FIGURE 15. Taeniopteris spatulata details. 1. LX1218, Curio Bay; 2. LX1097, Curio Bay; 3. LX1277, Curio Bay; 4. LX1241, Curio Bay. All scale bars equal 10 mm.

FIGURE 21 in A new megalosaurid theropod dinosaur from the late Middle Jurassic (Callovian) of north-western Germany: Implications for theropod evolution and faunal turnover in the Jurassic

FIGURE 21. Detail of the right astragalus of Wiehenvenator albati: Base of the ascending process and fibular facet in anteroproximal view, showing large foramen anterior to the ascending process. Abbreviations as in Figure 20, and: f, foramen.

FIGURE 17 in A new megalosaurid theropod dinosaur from the late Middle Jurassic (Callovian) of north-western Germany: Implications for theropod evolution and faunal turnover in the Jurassic

FIGURE 17. Dorsal ribs and gastralia of Wiehenvenator albati. 1, thoracic rib. 2, abdominal rib. 3-5, fused posterior medial gastralia in dorsal (3), ventral (4; stereophotographs), and anterior (5) views. Scale bar equals 100 mm.

FIGURE 8 in A new megalosaurid theropod dinosaur from the late Middle Jurassic (Callovian) of north-western Germany: Implications for theropod evolution and faunal turnover in the Jurassic

FIGURE 8. Stereophotographs of the promaxillary foramen in the right maxilla of Wiehenvenator albati in posterodorsal view. Abbreviations as in Figure 6. Scale bar equals 50 mm.

FIGURE 14 in A new megalosaurid theropod dinosaur from the late Middle Jurassic (Callovian) of north-western Germany: Implications for theropod evolution and faunal turnover in the Jurassic

FIGURE 14. Anterior mid-caudal vertebra of Wiehenvenator albati in lateral (1; stereophotographs), dorsal (2), anterior (3), and ventral (4) views. Abbreviations: nc, neural canal; ns, neural spine; pcd, pleurocentral depression; poz, postzygapophysis, prz, prezygapophysis; r, ridge; tp, transverse process. Scale bar equals 100 mm.

FIGURE 11 in A new megalosaurid theropod dinosaur from the late Middle Jurassic (Callovian) of north-western Germany: Implications for theropod evolution and faunal turnover in the Jurassic

FIGURE 11. Anterior (jugal) process of the right quadratojugal(?) of Wiehenvenator albati in lateral (1), medial (2), dorsal (3), and ventral (4) views. Abbreviations: djp, facet for the dorsal posterior prong of the jugal; vjp, facet for the ventral posterior prong of the jugal. Scale bar equals 100 mm.

FIGURE 30 in A new megalosaurid theropod dinosaur from the late Middle Jurassic (Callovian) of north-western Germany: Implications for theropod evolution and faunal turnover in the Jurassic

FIGURE 30. Possible biases that influence interpretations of the Jurassic theropod fossil record. Geographic distribution of Middle (1) and Late Jurassic (2) localities with identifiable theropod remains, and environments represented by Middle (3) and Late Jurassic (4) theropod localities.

FIGURE 25 in A new megalosaurid theropod dinosaur from the late Middle Jurassic (Callovian) of north-western Germany: Implications for theropod evolution and faunal turnover in the Jurassic

FIGURE 25. Time-calibrated cladogram of early tetanuran relationships, showing the earliest records of the distinct clades, and the rapid evolution of tetanurans in the early Middle Jurassic.

FIGURE 23 in A new megalosaurid theropod dinosaur from the late Middle Jurassic (Callovian) of north-western Germany: Implications for theropod evolution and faunal turnover in the Jurassic

FIGURE 23. Overview of transverse thin section of the left fibula of Wiehenvenator albati. Most of the primary tissue is secondarily remodelled, but growth marks are still preserved anteriorly and posteriorly (white arrows). Abbreviations: lat, lateral; post, posterior. Scale bar equals 5 mm. Inset: Slightly clockwise rotated and magnified image of the posterior outer bone cortex (see frame in overview image). Growth marks are marked by black arrows. Scale bar equals 400 µm.

FIGURE 27 in A new megalosaurid theropod dinosaur from the late Middle Jurassic (Callovian) of north-western Germany: Implications for theropod evolution and faunal turnover in the Jurassic

FIGURE 27. Representation of different clades of Middle (1) and Late Jurassic (2) nominal theropod taxa. Figures 3 and 4 show the same for large theropod taxa (body weight> 200 kg) only.

FIGURE 10 in A new megalosaurid theropod dinosaur from the late Middle Jurassic (Callovian) of north-western Germany: Implications for theropod evolution and faunal turnover in the Jurassic

FIGURE 10. Right postorbital of Wiehenvenator albati in lateral (1), anterior (2), medial (3), posterior (4), and dorsal (5) views (all stereophotographs). Abbreviations: d, depression, ff, frontal facet; jf, jugal facet; lf, laterosphenoid facet; of, orbital facet; sob, supraorbital brow; stf, supratemporal fossa. Scale bar equals 100 mm.

FIGURE 28 in A new megalosaurid theropod dinosaur from the late Middle Jurassic (Callovian) of north-western Germany: Implications for theropod evolution and faunal turnover in the Jurassic

FIGURE 28. Composition of Middle and Late Jurassic theropod faunas, as percentage of localities in which certain clades have been recorded.

FIGURE 22 in A new megalosaurid theropod dinosaur from the late Middle Jurassic (Callovian) of north-western Germany: Implications for theropod evolution and faunal turnover in the Jurassic

FIGURE 22. Right calcaneum of Wiehenvenator albati in anterior (1) and lateral (2) views. Scale bar equals 50 mm.