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Dataset: Fidelity Disruptive Medicine ETF (FMED) Stock Performance

This dataset provides historical stock market performance data for specific companies. It enables users to analyze and understand the past trends and fluctuations in stock prices over time. This information can be utilized for various purposes such as investment analysis, financial research, and market trend forecasting.

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Fig. 2 3D in Probable Juvenile Frontal Of Daspletosaurus Horneri (Dinosauria: Theropoda) From The Two Medicine Formation Of Montana, With Implications For Tyrannosaurid Ontogeny

Fig. 2 3D model of UCM 55499, left frontal of a juvenile cf. Daspletosaurus horneri, in A, dorsal view; B, ventral view; C, rostral view; D, lateral view; E, medial view; F, caudal view. Abbreviations: cbf, cerebral fossa; ccr, crista cranii; cpos, caudal part of postorbital suture; cr, cylinder-like ridge; cs, caudal shelf; dtf, dorsotemporal fossa; dtr, dorsotemporal ridge; es, ethmoid scar; fh, forehead region; ifs, interfrontal suture; lac, lacrimal socket; lss, laterosphenoid suture; ms, joint surface for the mesethmoid; obf, olfactory bulb fossa; or, orbital wall; os, orbital slot; oss, orbitosphenoid suture; pb, postorbital buttress; prf, joint surface for prefrontal; ps, parietal suture; rpos, rostral part of postorbital suture; sc, sagittal crest. The model is courtesy of The Fossil Vertebrate Collection at the University of Colorado Boulder Museum of Natural History.

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Fig. 1 UCM 55499 in Probable Juvenile Frontal Of Daspletosaurus Horneri (Dinosauria: Theropoda) From The Two Medicine Formation Of Montana, With Implications For Tyrannosaurid Ontogeny

Fig. 1 UCM 55499, left frontal of a juvenile cf. Daspletosaurus horneri, in A, dorsal view; B, ventral view; C, rostral view; D, lateral view; E, medial view; F, caudal view. Abbreviations: cbf, cerebral fossa; ccr, crista cranii; cpos, caudal part of postorbital suture; cr, cylinder-like ridge; cs, caudal shelf; dtf, dorsotemporal fossa; dtr, dorsotemporal ridge; es, ethmoid scar; fh, forehead region; ifs, interfrontal suture; lac, lacrimal socket; lss, laterosphenoid suture; ms, joint surface for the mesethmoid; obf, olfactory bulb fossa; or, orbital wall; os, orbital slot; oss, orbitosphenoid suture; pb, postorbital buttress; prf, joint surface for prefrontal; ps, parietal suture; rpos, rostral part of postorbital suture; sc, sagittal crest. Images are courtesy of The Fossil Vertebrate Collection at the University of Colorado Boulder Museum of Natural History. vidual variation. Furthermore, the area between the postsurface of TMP 2013.018.0011 (14.2°; Voris et al., 2019: orbital buttress and the caudal shelf in UCM 55499 is fig. 2) and that of the postorbital suture and the ros- extremely thin and plate-like, similar to the condition trocaudal axis (19.7°) in the lateral surface of UCM reported in the holotype of tyrannosaurine Alioramus 55499 are comparable to each other. Additionally, the "altai" (Bever et al., 2013) but differs from the relatively laterosphenoid suture in UCM 55499 is facing caudoven- deep condition in juvenile Gorgosaurus (e.g., Voris et al., trally, unlike the subvertical, caudally-facing suture in 2019: fig. S15). Lastly, Gorgosaurus does not approach Gorgosaurus frontals (e.g., Yun, 2020; pers. obs). This the abundance of Daspletosaurus horneri in the Two appears to be consistent with the description of Voris Medicine Formation (e.g., Farlow & Pianka, 2002; Carr (2018), who noted the angle between frontal and later- et al., 2017; Voris et al., 2020). In summary, the combiosphenoid sutures in Daspletosaurus postorbitals is ob- nation of aforementioned Daspletosaurus-like or tyrantuse, in which the former slopes caudoventrally. Further- nosaurine-like features, differences from similarly-sized more, the mediolateral width of the caudal shelf in UCM Gorgosaurus frontals as well as its provenance favours 55499 is slightly wider than that of the postorbital but- identification of the specimen as Daspletosaurus horneri tress, which is reminiscent to the condition in tyranno- through a balance of probability. saurines (Voris, 2018; Voris et al., 2022). In contrast, the widest part of the albertosaurine frontals is located at the Comparative description: UCM 55499 is an isolated, rostral end of postorbital suture (Voris, 2018; Voris et al., mostly complete left frontal that lacks the nasal process, 2022). Thus, UCM 55499 can be identified as a tyranno- the rostral part of the area that articulated with the presaurine, of which Daspletosaurus horneri is the only frontal, and the dorsal part of the sagittal crest. As preknown example in the Two Medicine Formation. There- served, the maximum rostrocaudal length of the specimen fore, this specimen is probably referable to this taxon. is 82 mm. When measured after the methodology of Cur- Of note, UCM 55499 does resemble Gorgosaurus front- rie (2003a), the width and depth are 44 mm and 18 mm, als by possessing mediolaterally oriented orbital slot in respectively. The specimen is comparable in its dimendorsal view (Voris et al., 2022) but it is interpreted in this sions to small frontals of Daspletosaurus sp., Gorgowork that this apparent similarity is likely due to the saurus libratus, Tarbosaurus bataar, and Tyrannosaurus "transitional" growth stage that the specimen represents, rex, but much smaller than large frontals of any of these between small juveniles with rostrocaudally elongated (Currie, 2003a; Lehman & Wick, 2013). shallow slot (Carr, 1999; Tsuihiji et al., 2011) and the The subcutaneous surface of the "forehead" region is flat, folded, narrow and deep slot present in tyrannosaurine like in some individuals of Daspletosaurus spp., and in adults (Carr, 2020; Voris et al., 2022), or else as an indi- Lythronax argestes (Voris et al., 2020; Yun, 2020; Figs.

Figure 4 in Use of commercial biostimulator in the ex situ cultivation of a native medicinal plant of Cerrado: Campomanesia adamantium

Figure 4. Two-dimensional graphic of the production data, chemical attributes of substrate, macro and micronutrients of dry mass of aerial parts in different doses of biostimulator. PC1 and PC2 correspond to the Principal Components Leaf dry mass (LDM); Stem dry mass (SDM); Total dry mass (TDM); Leaf area (LA); Dickson quality index (DQI); Root length (RL); Potential of hydrogen (pH); Organic matter (OM); Sum of bases (SB); Cation exchange capacity (CEC); Base saturation (V%); Phosphorus of substrate (P); Calcium of substrate (Ca); Calcium of root (R Ca); Magnesium of substrate (Mg); Copper of substrate (Cu); Copper of shoot (AP Cu); Copper of root (R Cu); Manganese of substrate (Mn); Iron of substrate (Fe); Iron of shoot (AP Fe); Zinc of substrate (Zn); Zinc of shoot (AP Zn) and Zinc of root (R Zn).

Figure 1 in Use of commercial biostimulator in the ex situ cultivation of a native medicinal plant of Cerrado: Campomanesia adamantium

Figure 1. Two-dimensional graphic of the chemical and microbiological attributes in different doses of biostimulator. PC1 and PC2 correspond to the Principal Components Potential of hydrogen (pH); Organic matter (OM); Phosphorus (P); Calcium (Ca); Magnesium (Mg); Copper (Cu); Manganese (Mn); Iron (Fe); Zinc (Zn); Sum of bases (SB); Cation exchange capacity (CEC); Base saturation (V%); microbial biomass carbon (Cmic); Basal respiration (BSR); Metabolic quocient (qCO ).

Figure 3 in Use of commercial biostimulator in the ex situ cultivation of a native medicinal plant of Cerrado: Campomanesia adamantium

Figure 3. Number of leaves of 'guavira' plants according to doses of the biostimulator and epochs of evaluation, * indicates significant difference (p <0.05).

Figure 2 in Use of commercial biostimulator in the ex situ cultivation of a native medicinal plant of Cerrado: Campomanesia adamantium

Figure 2. Photosynthetic activity of 'guavira' plants. A. Photochemical efficiency of photosystem II (Fv/Fm); B. absorbed energy conversion efficiency (F v /F 0); C. chlorophyll index and D. chlorophyll b of 'guavira' plants grown on substrate with different doses of biostimulator, *indicates significant difference (p <0.05) between biostimulator.

Figure 2. Serum IL-6 in Wound-healing and cytokine-modulating potential of medicinal oil formulation comprising leaf extract of Murraya koenigii and olive oil

Figure 2. Serum IL-6 level of treatment groups. *The level of IL-6 enhanced 154% when compared to Group 1; #The level of IL-6 declined 38.86% when compared to Group 2; $The level of IL-1β declined 48.3% when compared to Group 2.

Figure 4. A in Wound-healing and cytokine-modulating potential of medicinal oil formulation comprising leaf extract of Murraya koenigii and olive oil

Figure 4. A comparative wound healing study. (A1) Control animals, Dorsal view of wound on the 3rd day after creating wound; (A2) Dorsal view of the wound after treating with povidone-iodine solution (PIS) on 3rd day; (A3) Dorsal view of the wound after treating with medicinal oil (MO) on 3rd day; (B1) Control animals, Dorsal view of wound on the 6th day after creating wound; (B2) Dorsal view of the wound after treating with povidone-iodine solution (PIS) on 6th day; (B3) Dorsal view of the wound after treating with medicinal oil (MO) on 6th day; (C1) Control animals, Dorsal view of wound on the 9th day after creating wound; (C2) Dorsal view of the wound after treating with povidone-iodine solution (PIS) on 9th day; (C3) Dorsal view of the wound after treating with medicinal oil (MO)on 9th day.

Figure 3 in Wound-healing and cytokine-modulating potential of medicinal oil formulation comprising leaf extract of Murraya koenigii and olive oil

Figure 3. Serum TNF- α level of treatment groups. *The level of TNF- α enhanced 215% when compared to Group 1; #The level of TNF- α declined 39.25% when compared to Group 2; $The level of IL-1β declined 50% when compared to Group 2.

Figure 2 in An ethno-botanical study of indigenous medicinal plants and their usage in rural valleys of Swabi and Hazara region of Pakistan

Figure 2. Gender and age character (age limit is <30>40 year) of peoples interviewed in the study area.

Figure 2 in Anti-dermatophyte activity of the aqueous extracts of Thai medicinal plants

Figure 2. Bright-field microscopy images demonstrating the effect of plant extracts againstT. mentagrophytes and T. rubrum at MIC values.