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Fig. 6 in Filling the ceratosaur gap: A new ceratosaurian theropod from the Early Cretaceous of Spain

Fig. 6. Ceratosaurian theropod Camarillasaurus cirugedae gen. et sp. nov. from the Camarillas Formation of Camarillas, Soria Province, Spain, sacrum. A. MPG-KPC4, formed from two broken centra fused, in left lateral (A1) and anterior (A2) views. B. MPG-KPC3, formed from two broken centra fused, in right lateral (B1) and anterior (B2) views. C. MPG-KPC16, incomplete centrum, in lateral (C1) and anterior? (C2) views. D. MPG-KPC18, incomplete centrum, in articular surface ventral view. E. MPG-KPC4 and MPG-KPC3, lateral view. Scale bars A–D, 10 mm; E, 40 mm.

Fig. 5 in Filling the ceratosaur gap: A new ceratosaurian theropod from the Early Cretaceous of Spain

Fig. 5. Ceratosaurian theropod Camarillasaurus cirugedae gen. et sp. nov. from the Camarillas Formation of Camarillas, Soria Province, Spain, dorsal vertebrae. A. MPG-KPC20 in?posterior (A1) and?anterior (A2, A3) views; showing different structures described in text. B. MPG-KPC39 in right lateral (B1, B2), showing structures described in text and in anterior view (B3). C. MPG KPC21 in right lateral (C1) and posterior (C2) views. D. MPG-KPC17 in left lateral view. E. MPG-KPC51. Scale bars are A, C, D, E, 10 mm; B, 20 mm.

Fig. 11 in Filling the ceratosaur gap: A new ceratosaurian theropod from the Early Cretaceous of Spain

Fig. 11. Proximal portion of right tibia of ceratosaurian theropod Camarillasaurus cirugedae nov. gen. et sp. from the Camarillas Formation of Camarillas, Soria Province, Spain, MPG-KPC8, in lateral (A), medial (B), anterior (C), posterior (D), proximal (E), and distal (F) views; detail of the tibial foramen area, in lateral view (G). Scale bars 10 mm.

Fig. 4 in Filling the ceratosaur gap: A new ceratosaurian theropod from the Early Cretaceous of Spain

Fig. 4. Ceratosaurian theropod Camarillasaurus cirugedae gen. et sp. nov. from the Camarillas Formation of Camarillas, Soria Province, Spain. A. Presacral vertebra, MPG-KPC9, in anterior (A 1), left lateral (A 2), and posterior (A 3) views. B. Possible neural spine tips, MPG-KPC31, 32, 33, in?posterior (B 1) and transverse (B 2) views. C. Presacral rib MPG-KPC7, in ventral view (C 1) and detail of its proximal end (C 2). Dotted line in C 2 indicates original, restored outline. Scale bars: A, C 2, 10 mm; B, 20 mm; C 1, 100 mm.

Fig. 8 in Filling the ceratosaur gap: A new ceratosaurian theropod from the Early Cretaceous of Spain

Fig. 8. Chevrons of ceratosaurian theropod Camarillasaurus cirugedae gen. et sp. nov. from the Camarillas Formation of Camarillas, Soria Province, Spain. A. MPG-KPC6, distal section, in anterior view (A 1), anterior view with different features marked (A 2), left lateral view (A 3). B. MPG-KPC5, proximal section with haemal canal, in anterior (B 1), left lateral (B 2), posterior (B 3), and right lateral (B 4) views. Note that the processes are absent on the cranial side. Crests of ridges indicated by white dotted lines in A 2, B1, B3. Scale bars 10 mm.

Fig. 2 in Filling the ceratosaur gap: A new ceratosaurian theropod from the Early Cretaceous of Spain

Fig. 2. Ceratosaurian theropod Camarillasaurus cirugedae gen. et sp. nov. from the Camarillas Formation of Camarillas, Soria Province, Spain, tooth, MPG-KPC43, in labial-lateral (A, D), lateral (B, E), and cross-sectional (C, F) views. The different damaged areas are marked (D, E), in clear grey for a broken section, dark grey for the wear facets, and white, for the root marks that have dissolved the enamel. Scale bar 5 mm.

Fig. 10 in Filling the ceratosaur gap: A new ceratosaurian theropod from the Early Cretaceous of Spain

Fig. 10. Sternal plates of ceratosaurian theropod Camarillasaurus cirugedae gen. et sp. nov. from the Camarillas Formation of Camarillas, Soria Province, Spain. A. MPG-KPC2, right sternal plate, in lateral (A 1) and ventral (A 2) views. B. MPG-KPC1, left sternal plate, in lateral (B 1) and ventral (B 2) views. Scale bars are 10 mm. medial condyles. It is flanked laterally by the fibular crest which runs the length of the specimen (Fig. 11B–D). As the cnemial and fibular crests approach each other distally, they

Fig. 3 in Filling the ceratosaur gap: A new ceratosaurian theropod from the Early Cretaceous of Spain

Fig. 3. Ceratosaurian theropod Camarillasaurus cirugedae gen. et sp. nov. from the Camarillas Formation of Camarillas, Soria Province, Spain, cervical vertebra, MPG-KPC24, in right lateral (A),?posterior (B),?anterior (C), and ventral (D) views. Dotted line in A indicates outline of lateral process (parapophysis). Scale bar 5 mm.

Fig. 7 in Filling the ceratosaur gap: A new ceratosaurian theropod from the Early Cretaceous of Spain

Fig. 7. Ceratosaurian theropod Camarillasaurus cirugedae gen. et sp. nov. from the Camarillas Formation of Camarillas, Soria Province, Spain, caudal vertebrae: A. MPG-KPC19, in?anterior (A 1),?posterior (A 2), and lateral (A 3) views. B. MPG-KPC18, in?anterior (B 1), dorsal (B 2), and lateral (B 3) views. C. MPG-KPC15, in lateral view. D. MPG-KPC46, in?posterior-lateral view. E. MPG-KPC10, in left lateral (E 1) and right lateral (E 2) views. F. MPGKPC11, in left lateral (F 1) and posterior (F 2) views. G. MPG-KPC13, in left lateral view. H. MPG-KPC12, in left lateral (H 1) and posterior (H 2) views. I . MPG-KPC22, in?anterior view. Scale bars A 2, C–G, H2, 20 mm; A 1, H1, 10 mm.

FIGURE 10 in Three decades of Chondrichthyan research in Brazil assessed from conferences' abstracts: patterns, gaps, and expectations

FIGURE 10 | Funnel representing the total number of abstracts with Chondrichthyes, the proportion of studies with Evolution within those, the proportion of Systematics, and the final proportion of women acting as last authors (WLA) in Chondrichthyan Systematics. The "leaking pipeline" is demonstrated by the reasons women might be leaving academia in the right side of the image. ECO, Ecology; EVO, Evolution; PHY, Physiology.

FIGURE 9 in Three decades of Chondrichthyan research in Brazil assessed from conferences' abstracts: patterns, gaps, and expectations

FIGURE 9 | Proportion of abstracts with each Chondrichthyan order and proportion of studies by research area: ECO, Ecology; EVO, Evolution; PHY, Physiology. The percentage might be higher than 100% since some abstracts were counted twice as they dealt with more than one order.

FIGURE 6 in Three decades of Chondrichthyan research in Brazil assessed from conferences' abstracts: patterns, gaps, and expectations

FIGURE 6 | Proportion of each research area and most studied Chondrichthyan orders by Brazilian region. Green, Northern (N); brown, Northeastern (NE); red, Midwestern (M); orange, Southeastern (SE); blue, Southern (S). Upper graph at the right of each region representing research areas: ECO, Ecology; EVO, Evolution; PHY, Physiology. Lower graph at the right of each region representing Chondrichthyan orders: CAR, Carcharhiniformes; MYL, Myliobatiformes; RAJ, Rajiformes; Other*, other orders.

FIGURE 8 in Three decades of Chondrichthyan research in Brazil assessed from conferences' abstracts: patterns, gaps, and expectations

FIGURE 8 | Proportion of abstracts dealing with each Chondrichthyan order (number in parenthesis) on the Chondrichthyan Tree of Life cladogram (www.sharksrays.org, Naylor, 2022).

FIGURE 7 in Three decades of Chondrichthyan research in Brazil assessed from conferences' abstracts: patterns, gaps, and expectations

FIGURE 7 | Percentage, per event, of first authors' home institution regarding each of the five Brazilian regions: green, Northern (N); brown, Northeastern (NE); red, Midwestern (M); orange, Southeastern (SE); blue, Southern (S). EBI, Encontro Brasileiro de Ictiologia; SBEEL, Encontro da Sociedade Brasileira para o Estudo de Elasmobrânquios; ISPCNF, International Symposium on Phylogeny and Classification of Neotropical Fishes.

FIGURE 4 in Three decades of Chondrichthyan research in Brazil assessed from conferences' abstracts: patterns, gaps, and expectations

FIGURE 4 | Women as last authors in each event throughout the years. Blue circle = EBI (Encontro Brasileiro de Ictiologia), red square = SBEEL (Encontro da Sociedade Brasileira para o Estudo de Elasmobrânquios), yellow triangle = ISPCNF (International Symposium on Phylogeny and Classification of Neotropical Fishes). Continuous lines represent the data every two years.

FIGURE 1 in Three decades of Chondrichthyan research in Brazil assessed from conferences' abstracts: patterns, gaps, and expectations

FIGURE 1 | Research area per event over the years. EBI, Encontro Brasileiro de Ictiologia; SBEEL, Encontro da Sociedade Brasileira para o Estudo de Elasmobrânquios. ECO: Ecology, EVO: Evolution; PHY: Physiology, Others: Other research areas.

FIGURE 3 in Three decades of Chondrichthyan research in Brazil assessed from conferences' abstracts: patterns, gaps, and expectations

FIGURE 3 | At least one woman vs. no woman in authorship per event throughout the years. Blue circle = EBI (Encontro Brasileiro de Ictiologia), red square = SBEEL (Encontro da Sociedade Brasileira para o Estudo de Elasmobrânquios), yellow triangle = ISPCNF (International Symposium on Phylogeny and Classification of Neotropical Fishes); green cross, no woman. Continuous lines represent the data every two years.

FIGURE 2 in Three decades of Chondrichthyan research in Brazil assessed from conferences' abstracts: patterns, gaps, and expectations

FIGURE 2 | Proportion of abstracts with Chondrichthyan Systematics within Evolution (EVO) per event throughout the years. Blue circle = EBI (Encontro Brasileiro de Ictiologia), red square = SBEEL (Encontro da Sociedade Brasileira para o Estudo de Elasmobrânquios), yellow triangle = ISPCNF (International Symposium on Phylogeny and Classification of Neotropical Fishes). Continuous lines represent the data every two years.

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SUSTRACK - Knowledge Gaps

The goal of achieving a net-zero emission European economy by 2050 demands a shift from linear, fossil-based systems to circular, bio-based systems. This transition is vital for meeting the United Nations Sustainable Development Goals and reconciling environmental protection with sustainable growth. However, the complexity of the transition relies on societal transformations, cutting-edge technologies, and multi-actor processes, requiring a new societal and economic framework and policy priorities that align with the European Green Deal. In this context, monitoring systems, modelling techniques and data are key tools to support policy making and facilitate a better understanding of the complexity, trade-offs, and potential pathways to achieve a sustainable transition to a circular bioeconomy.   This dataset presents the review of existing knowledge for monitoring and evaluating the transition to circular bio-based systems. More than 130 research items, including scientific articles and reports, were consulted to identify major gaps across indicators and approaches generally used to monitor and evaluate the bioeconomy across the three major policy-level analyses: (i) micro-level (products/processes/companies), (ii) meso-level (city/regions) and (iii) macro-level (World, Europe or countries).   This dataset is suplementary to the publication of SUSTRACK project: D2.1 - Review of Approaches and Identification of Research Gaps