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Fig. 8 in Moles (Talpidae) from the late Middle Miocene of South Germany

Fig. 8.?Urotrichusdolichochir, Petersbuch 6. A. Left dentary fragment with p4 and m1−trigonid, NHMA P6−1066, buccal view; ca. × 10. B. Right humerus, NHMA P6−1067 in anterior (B1) and posterior (B2) views; ca. × 7.5.

Fig. 5 in Moles (Talpidae) from the late Middle Miocene of South Germany

Fig. 5. Proscapanus sp., Petersbuch 31. A. Left dentary with m1, NHMA P31−169/1, buccal view; ca. × 10. B. Right m2, NHMA P31−169/3, occlusal view; ca. × 10. C. Left M1, NHMA P31−169/6; ca. × 10. D. Right humerus, NHMA P31−170/1, in anterior (D1) and posterior (D2) views; ca. × 5.

Fig. 7. Talpa minuta, Petersbuch 6. A. Right dentary with p1–m3, NHMA P6−1058B1 in Moles (Talpidae) from the late Middle Miocene of South Germany

Fig. 7. Talpa minuta, Petersbuch 6. A. Right dentary with p1–m3, NHMA P6−1058B1 in occlusal (A1) and buccal (A2) views; ca. × 5. B. Right maxillary fragment with M1–M3, NHMA P6−1059/6, occlusal view; ca. × 10. C. Right P4, NHMA P6−1059/4, occlusal view; ca. × 10. D. Left humerus, NHMA P6−1060/1, in anterior (D1) and posterior (D2) views; ca. × 5. E. Left ulna, NHMA P6−1062/3, anterior view; ca. × 5. F. Left ulna, NHMA P6−1062/2, lateral view; ca. × 5.

Fig. 3 in Moles (Talpidae) from the late Middle Miocene of South Germany

Fig. 3. Leptoscaptorrobustior gen. et sp. nov., Petersbuch 35. A. Right dentary with p4–m1, NHMA P35−57A1, buccal view; ca. × 10. B. Holotype, right humerus, NHMA P35−58/6, in anterior (B1) and posterior (B2) views; ca. × 7.5.

Fig. 4. Proscapanussansaniensis. A. Left dentary fragment with canine root and p1–p4, Petersbuch 31, NHMA P31−163A1 in Moles (Talpidae) from the late Middle Miocene of South Germany

Fig. 4. Proscapanussansaniensis. A. Left dentary fragment with canine root and p1–p4, Petersbuch 31, NHMA P31−163A1, occlusal view; ca. × 10. B. Right m1–m3, Petersbuch 31, NHMA P31−163B2, occlusal view; ca. × 10. C. Right dentary fragment with p4–m2, Petersbuch 48, NHMA P48−89A1, buccal view; ca. × 10. D. Left P4, Petersbuch 31, NHMA P31−163C1, occlusal view; ca. × 10. E. Left M1, Petersbuch 48, NHMA P48−89B2, occlusal view; ca. × 10. F. Right M2, Petersbuch 31, NHMA P31−163E3, occlusal view; ca. × 10. G. Left humerus, Petersbuch 31, NHMA P31−164A1, anterior view; ca. × 5.

Fig. 2 in Moles (Talpidae) from the late Middle Miocene of South Germany

Fig. 2. Leptoscaptor bavaricum gen. et sp. nov., Petersbuch 10. A. Holotype, left dentary with c, p2–m1 and the alveoles of i1–i2, NHMA P10−608.6, in occlusal (A1) and buccal (A2) views; ca. × 10. B. Left dentary with m1–m3, NHMA P10−608.36, buccal view; ca. × 10. C. Left dentary with m1–m3, NHMA P10−608.37, occlusal view; ca. × 10. D. Left maxillary fragment with P1–P3 and the two roots of the canine, NHMA P10−624.1, occlusal view; ca. × 15. E. Left maxillary fragment with P4–M1, NHMA P10−624.3, occlusal view; ca. × 15. F. Left M2, NHMA P10−625D1, occlusal view; ca. × 15. G. Right M3, NHMA P10−625H4, occlusal view; ca. × 15. H. Left humerus, NHMA P10−612, proximal fragment, anterior view; ca. × 7.5. I. Left humerus, P10−610.2, distal fragment, anterior view; ca. × 7.5.

Fig. 10 in Moles (Talpidae) from the late Middle Miocene of South Germany

Fig. 10. Tenuibrachiatum storchi gen. et sp. nov., Petersbuch 31. A. Holotype, left dentary with p1, p4–m2, NHMA P31−166A1, in occlusal (A1) and buccal (A2) views; ca. × 10. B. Right m1, NHMA P31−166A2, occlusal view; ca. × 15. C. Right m2, NHMA P31−166A4, occlusal view; ca. × 15. D. Left maxillary fragment with P4–M1, NHMA P31−166D2, occlusal view; ca. × 15. E. Right M2, NHMA P31−166E2, occlusal view; ca. × 15. F. Left humerus, NHMA P31−167/1, anterior view; ca. × 7.5. G. Right humerus, NHMA P31−167/8, posterior view; ca. × 7.5.

Fig. 1. Mygalea antiqua, Petersbuch 6. A. Left m1–m3, NHMA P6−1065.1 in Moles (Talpidae) from the late Middle Miocene of South Germany

Fig. 1. Mygalea antiqua, Petersbuch 6. A. Left m1–m3, NHMA P6−1065.1, in occlusal (A1) and buccal (A2) views; ca. × 10. B. Left dentary with m3 and complete ascending ramus, NHMA P6−1065.2, buccal view; ca. × 5.

Fig 2. A. Hybodontiformes indet. BGRX 12499 in Neoselachian remains (Chondrichthyes, Elasmobranchii) from the Middle Jurassic of SW Germany and NW Poland

Fig 2. A. Hybodontiformes indet. BGRX 12499; in lateral (A 1, A2) and occlusal (A3) views. All × 40. B. Pseudospinax? sp. BGRX 12500, Kłęby 1/37: 244.8–245.7 m, Callovian; in occlusal (B1), lateral (B2), and lingual (B3) views. All × 80. C. Palaeobrachaelurus sp. BGRX 12502, Kłęby 1/37: 244.8–245.7 m, Callovian in labial view (C1), × 55, occlusal view (C2), × 55, lateral view C3, × 55, lingual view (C4), × 55, and basal view (C5), × 40. D. Holotype of Folipistrix digitulus gen. et sp. nov. SMNS 87861, Weilen unter den Rinnen, SW Germany, Dogger α, lower Aalenian; in labial view (D1), × 50, lateral view (D2), × 50. lingual view (D3), × 45, latero−lingual view (D4), × 45, and basal view (D5), × 45.

Fig. 1 in Neoselachian remains (Chondrichthyes, Elasmobranchii) from the Middle Jurassic of SW Germany and NW Poland

Fig. 1. Map of Germany and Poland (A) showing localities of Weilen unter den Rinnen (B) and Kłęby 1/37 (C) that yielded the selachian material described in this paper.

Fig. 3. A in Neoselachian remains (Chondrichthyes, Elasmobranchii) from the Middle Jurassic of SW Germany and NW Poland

Fig. 3. A. Paratype of Folipistrix digitulus gen. et sp. nov. SMNS 87862, Weilen unter den Rinnen, SW Germany, Dogger α, lower Aalenian; in labial view, × 52. B–C. Orectolobiformes, fam. gen. et sp. indet. Weilen unter den Rinnen, SW Germany, Dogger α, lower Aalenian. B. Specimen SMNS 87863; in labial view, × 85. C. Specimen SMNS 87864; in labial view, × 115. D. Holotype of Synechodus prorogatus sp. nov. BGRX 12503, Kłęby 1/37: 244.8–245.7 m, Callovian; in labial (D1), occlusal (D2), lateral (D3), and lingual (D4) views. All × 40. E. Isolated lateral cusplet of Synechodus prorogatus sp. nov., BGR X 12504, Kłęby 1/37: 244.8–245.7 m, Callovian; in labial (E1) and lingual (E2) views. Both × 30. F. Protospinax cf. annectans Woodward, 1919. Specimen BGRX 12505, Kłęby 1/37: 244.8–245.7 m, Callovian; in labial (F 1), lateral (F2), occlusal (F3), and lingual (F4) views. All × 65. G. Protospinax cf. annectans Woodward, 1919. Specimen BGRX 12506, Kłęby 1/37: 244.8–245.7 m, Callovian; in labial (G 1), lateral (G2), occlusal (G3), and lingual (G4) views. All × 32. H. Protospinax sp. 1. BGRX 12507, Kłęby: 244.8–245.7 m, Callovian; in labial (H 1), lateral (H2), occlusal (H3), and lingual (H4) views. All × 40. J. Protospinax sp. 2. BGRX 12508, Kłęby 1/37: 244.8–245.7 m, Callovian. Labial view. K. Squalogaleus sp. BGRX 12509, Kłęby 1/37: 244.8–245.7 m, Callovian; in labial (K1), lateral (K2), occlusal (K3), and lingual (K4) views. All × 50. L. Synechodus prorogatus sp. nov.? BGRX 12510, Kłęby 1/37: 253.6–~265 m, Callovian. Labial view, × 28. M. Scyliorhinidae indet. BGRX 12511, Kłęby 1/37: 253.6–~265, Callovian; in labial view, × 14. N. Neoselachii indet. BGR X 12512, Kłęby 1/37: 253.6–~265, Callovian; in labial view, × 22.

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Fig. 5 in Soft-tissue attachments in orthocerid and bactritid cephalopods from the Early and Middle Devonian of Germany and Morocco

Fig. 5. SEM micrographs of Bactrites, and Cycloceras of early Emsian age (Early Devonian) from Ouidane Chebbi (Tafilalt, Morocco). The specimens coated with carbon. A. Bactrites sp. C; PIMUZ 7272; A1, detail of the annular elevation; note the rugged surface of the adoral part as well as the right and the median lobe of the annular elevation; A2, dorsal view of the same, showing last formed septum and posterior portion of body chamber; note the tracking bands, the mural band, and the annular elevation. B. Cycloceras sp.; PIMUZ 7263; B1, lateral view of a part of the phragmocone; B2, B3, same specimen, details of the wrinkle layer; note that the wrinkles are asymmetric in cross section with the steeper slope pointing adapically. C. Cycloceras sp.; PIMUZ 7261; detail of the conchal furrow. D.?Bactrites sp.; PIMUZ 7269; D1, detail of the wrinkle layer; D2, same specimen detail of the wrinkle layer in a smaller scale, note the asymmetry; D3, same specimen, overview of the adoral part of the body chamber.

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Fig. 2 in Soft-tissue attachments in orthocerid and bactritid cephalopods from the Early and Middle Devonian of Germany and Morocco

Fig. 2. Schematic outlines of the variability of the dorsal furrow in Acanthomichelinoceras commutatum (Giebel, 1852), showing the base of a chamber mould, with annular elevation dotted. Note the differences of the starting point of the dorsal furrow, sometimes within the mural area, sometimes within the annular elevation. A. NHW 56.9.05/402. B. NHW 56.9.05/404. C. MB.C.5366.4. D. MB.C.5366.1. Not to scale.

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Fig. 1 in Soft-tissue attachments in orthocerid and bactritid cephalopods from the Early and Middle Devonian of Germany and Morocco

Fig. 1. Soft−tissue attachment structures in cephalopods from the Wissenbach Schiefer (early Eifelian). A. Bactrites gracile (Blumenbach, 1803), NHW 62.11/W−23/64, dorsal view, note the two different grayish bands (arrows) forming a lobe. B. Bactrites sp. A, NHW 402, dorsal view (B1), note two successive, slightly undulated grooves. Same specimen, lateral view (B). Same specimen, ventral view (B), note the small lobe in suture line. Same specimen, +

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Dataset for "Extensive Schmallenberg virus circulation in Germany, 2023"

<p>Wild ruminant sera (red deer, roe deer, mouflon) collected during the 2022/2023 and 2023/2024 hunting seasons in western Germany were serologically tested for the presence of antibodies against Schmallenberg virus (SBV) and bluetongue virus (BTV). The dataset contains the values of the SBV and BTV antibody ELISAs. </p>

Fig. 5 in A symbiotic association of a boring polychaete and an echinoid from the Late Cretaceous of Germany

Fig. 5. Schematic sketch of the echinoid / polychaete interaction and the development of a Caulostrepsis boring. A. Position of the commensal polychaete on the sheltered basal side (plastron) of the echinoid, taking advantage of the hosts ciliary current and sediment resuspension due to locomotion. B. A polydorid polychaete producing an initial shallow depression on the test surface. C. The polydorid progressively deepens the excavation; the presence of a mucus−bound infill between the limbs as it is known for some Recent polydorids, is hypothetical. D. Abandoned trace and regeneration texture developed by the living echinoid skeletal tissue. The mode of penetration is based upon Söderström (1923) and Blake and Evans (1973).

Fig. 3 in A symbiotic association of a boring polychaete and an echinoid from the Late Cretaceous of Germany

Fig. 3. SEM images of a latex cast prepared from the trace−bearing plastron area of the Echinocorys ovata (Leske, 1778) echinoid (Early Maastrichtian; "Klementelvitz" quarry, Rügen Island, N Germany). A. Traces # 4–7 oriented sub−parallel to each other in close proximity to the periproct B. Lateral view of the moderately deep U−shaped trace # 12 showing a distinct regeneration texture in form of primary and miliary tubercles.

Fig. 2 in A symbiotic association of a boring polychaete and an echinoid from the Late Cretaceous of Germany

Fig. 2. Oral surface of an Echinocorys ovata (Leske, 1778) (# MB.E 5713) featuring syn−vivo polychaete boring traces (Early Maastrichtian; "Klementelvitz" quarry, Rügen Island, N Germany). A. Overview of the well preserved oral surface with 27 Caulostrepsis isp. traces, all of which are located in the interambulacral plates of the plastron. B. Schematic sketch of the basal surface indicating the position and number of the traces and the areas enlarged in C and D. C. Close−up of several traces in close proximity of the periproct. D. Close−up of several traces illustrating their variability in length, boring depth and curvature. Note the prominent regeneration texture exhibited by all traces.

Fig. 4. A in A symbiotic association of a boring polychaete and an echinoid from the Late Cretaceous of Germany

Fig. 4. A. Recent Polydora sp. boring traces recorded in an artificial limestone substrate deployed in the Swedish Kosterfjord area during a bioerosion experiment. B. SEM image of an epoxy resin cast of an initial syn−vivo Caulostrepsis isp. boring taken from a Littorina littorea gastropod shell. C. The spionid polychaete Polydora sp. isolated from a bivalve shell. (Recent material stored at the Institute of Palaeontology, Erlangen).

Fig.1 in A symbiotic association of a boring polychaete and an echinoid from the Late Cretaceous of Germany

Fig.1. Map of Rügen Island (N Germany) in the southern Baltic Sea and the location of the chalk pit "Klementelvitz", where the Echinocorys in question was sampled in Early Maastrichtian strata.