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9,671 results for “Leaf”
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 8 in Pouteria ramiflora leaf extract on emulgel in wound healing activity in diabetic rats
Figure 8. Photomicrograph of histological sections of rats' skin wounds of Control group (Carbopol) (A, B, and C), Ethanolic extract (Ext) (D, E, F) and Gel + Ethanolic extract 2% (Ext+gel) (G, H, I) at 30 days after the skin wound injury (D, E, F). epidermis (ep); granular layer (green arrow); fibroblasts (black arrow). HE.
Figure 5 in Pouteria ramiflora leaf extract on emulgel in wound healing activity in diabetic rats
Figure 5. Quantification of inflammatory cells, fibroblasts, and angiogenesis (blood vessels) in diabetic animals' skin on groups: Control, Ext and Ext+gel, 14 days. ns (statistically not significant). DUNN's test (P=0.05).
Figure 4 in Pouteria ramiflora leaf extract on emulgel in wound healing activity in diabetic rats
Figure 4. Photomicrograph of histological sections of diabetic rats' skin wounds. (A, A1), Control, Ext (B, B1) and Ext+gel (C, C1) to 14 days after injury of the skin wound. Epidermis (ep); keratin (k); fibroblast (f); collagen fibers (c); HE. Quantification of inflammatory cells, fibroblasts, and angiogenesis in diabetic animals' skin on groups: Control, Ext and Ext+gel, DUNN's test (P=0.05).
Figure 3 in Pouteria ramiflora leaf extract on emulgel in wound healing activity in diabetic rats
Figure 3. Quantification of inflammatory cells, fibroblasts, and angiogenesis (blood vessels) in diabetic animals' skin on groups: Control; Ext and Ext+gel, 7 days. ns (statistically not significant). DUNN's test (P=0.05).
Figure 2 in Pouteria ramiflora leaf extract on emulgel in wound healing activity in diabetic rats
Figure 2. Photomicrograph of histological sections of diabetic rats' skin wounds of groups: Control, Ext and Ext+gel (A, B, C) at 7 days after injury of the skin wound (A1, B1, C1), crust, epidermis (ep); dermis (d) deep dermis with tissue granulation, fibroblasts (f); blood vessels (angiogenesis) (bv); (HE, 10 and 40x).
Figure 1 in Pouteria ramiflora leaf extract on emulgel in wound healing activity in diabetic rats
Figure 1. Chart of analysis phytochemical of Ethanolic extract of Pouteria ramiflora leaves, Campo Grande, 2016. Frequency = low (+ = 25%), moderately moderate (++ = 50%) and high intensity (+++ = 100%), besides negative (- = 0%).
Figure 2 in Root deformation affects mineral nutrition but not leaf gas exchange and growth of Genipa americana seedlings during the recovery phase after soil flooding
Figure 2. Concentrations of P in leaves for G. americana seedlings without or with root deformation (RD) after 28 days of soil drainage (recovery). N = 3. Means followed by the same letter are not significantly different according to Tukey's test (p <0.05). Capital letters represent comparisons water effects within root conditions and lower case letters represent comparisons of roots effects within water conditions.
Figure 1 in Root deformation affects mineral nutrition but not leaf gas exchange and growth of Genipa americana seedlings during the recovery phase after soil flooding
Figure 1. Four months old seedlings of G. americana without (A) and with (B) root deformation (RD) caused by errors in the pricking out process, and a detail of the RD (C).
TWO DRAFT GENOMES OF FUNGAL leaf endophytes from tropical gymnosperms
<p>Two ascomycetes, <em>Neofusiccocum sp. </em>Z2 and<em> Xylaria sp. </em>Z50<em>, </em>were isolated from healthy leaves of the tropical gymnosperms <em>Zamia pseudoparasitica</em> (Z2) and <em>Z. nana</em> (Z50) from Panama. The two draft genomes possess a broad repertoire of predicted carbohydrate degrading CAZymes, peptidases, secondary metabolites with more secondary metabolite clusters in the <em>Xylaria</em> isolate.</p>
Fig. 2 in Distribution, Immature Stages and Life History of a Rose Leaf-rolling Sawfly, Pamphilius hilaris, in Japan (Hymenoptera, Pamphiliidae)
Fig. 2. Pamphilius hilaris. Larval leaf-rolls on leaflets of Rosa multiflora, Koya, Moriya City, Ibaraki Prefecture, 2021, early instar (A), middle instar (B–D), late instar (E–H).—A–C, May 15; D, May 10; E, G, H, May 29; F, May 23. White arrow in A showing small larval leaf-roll and black arrows in A, B, D and white arrow in F showing remains of egg shells.
Fig. 1 in Distribution, Immature Stages and Life History of a Rose Leaf-rolling Sawfly, Pamphilius hilaris, in Japan (Hymenoptera, Pamphiliidae)
Fig. 1. Pamphilius hilaris. Egg on a leaflet of Rosa multiflora (A–B) and larvae (C–J), 2021.—A, Koya, Moriya City, Ibaraki Prefecture, May 3 (egg arrowed); B, another egg, same data; C, D, early instar, about 5 mm long, May 6; E, F, middle instar, about 13 mm long, May 19; G, H, late instar, about 17 mm long, June 4; I, J, mature larva, about 16 mm long, June 4.
Fig. 1 in Rice leaf folder Cnaphalocrocis medinalis (Lepidoptera: Crambidae) on wheat (Triticum aestivum; Poales: Poaceae) in India
Fig. 1. Infestation of wheat by larvae and pupae of Cnaphalocrocis medinalis, and genitalic and morphological characters of adults. A: Damaged leaves with larvae; B: larva in rolled leaf; C: close-up of larva; D: pupa on leaf; E: close-up of pupa; F: adult male; G: male aedeagus; H: female genitalia; I: male genitalia, dorsal. J: male genitalia, ventral. a, androconial hairs; aa, anterior apophysis; bc, bursa copulatrix; c, cornuti; db, ductus bursae; pa, posterior apophysis; s, signum.
Рис. 5. ΔенΑрограмма меры разброса значений ΑΛя показатеΛей вΛияния опушенности и тоΛщины Λистовой пΛастинки картофеΛя на прожорΛивость Λичинок картофеΛьной коровки Fig. 5. Dendrogram representing the value scatter for the influence of pubescence and thickness of the potato leaf blade on the voracity of potato ladybug larvae in Role of potato immune factors in the trophic responses of Henosepilachna vigintioctomaculata Motschulsky, 1858
Рис. 5. ΔенΑрограмма меры разброса значений ΑΛя показатеΛей вΛияния опушенности и тоΛщины Λистовой пΛастинки картофеΛя на прожорΛивость Λичинок картофеΛьной коровки Fig. 5. Dendrogram representing the value scatter for the influence of pubescence and thickness of the potato leaf blade on the voracity of potato ladybug larvae
Fig. 7 in Leaf-footed bugs (Heteroptera, Coreidae) damaging red raspberry in the south of Primorsky Krai
Fig. 7. Late instar nymphs of the leaf-footed (Coreidae) bugs Coreus marginatus orientalis (left) and Molipteryx fuliginosa (right): A — instar IV; B — instar V. Photo by M. Maslov Рис. 7. Δичинки Coreidae старших возрастов — Coreus marginatus orientalis (сΛева) и Molipteryx fuliginosa (справа): A — IV возраст; B — V возраст. Фото М. МасΛова
Fig. 3 in Leaf-footed bugs (Heteroptera, Coreidae) damaging red raspberry in the south of Primorsky Krai
Fig. 3. Coreus marginatus orientalis breeding and feeding on generative organs of red raspberry: A — adults mating on an unripe fruit; B — eggs laid by a female directly on a raspberry fruit; C — an instar II nymph sucking the fruit cell sap; D — red raspberry drupelets drying after being eaten by leaf-footed bugs. Photo by M. Maslov Рис. 3. Размножение и питание Coreus marginatus orientalis на генеративных органах маΛины обыкновенной: A — копуΛяция имаго на незреΛом пΛоΑе; B — яйца, отΛоженные самкой непосреΑственно на пΛоΑ маΛины; C — Λичинка II возраста, сосущая кΛеточный сок пΛоΑа; D — усыхание костянок в резуΛьтате питания кΛопов на пΛоΑах маΛины. Фото М. МасΛова
Fig. 2 in Leaf-footed bugs (Heteroptera, Coreidae) damaging red raspberry in the south of Primorsky Krai
Fig. 2. Molipteryx fuliginosa feeding on vegetative parts of red raspberry: A — instar II nymph on the apical part of a shoot; B — traces of sucking and necrosis on a part of the shoot. Photo
Fig. 5 in Leaf-footed bugs (Heteroptera, Coreidae) damaging red raspberry in the south of Primorsky Krai
Fig. 5. Coreus marginatus orientalis (left) and Molipteryx fuliginosa (right): A — two converging sharp spines on the head located between the antennae bases; B — lateral angles of the pronotum bent anteriorly, its margins behind forming rounded lobes, anterior margins with teeth Рис. 5. Coreus marginatus orientalis (сΛева) и Molipteryx fuliginosa (справа): A — Αва схоΑящихся острых шипа на гоΛове, межΑу основаниями усиков; B — боковые угΛы переΑнеспинки загнуты впереΑ, ее края позаΑи образуют округΛые Λопасти, переΑние края переΑнеспинки усажены зубчиками
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