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FIGURES 91 – 96. Strongylophthalmyia morphological features. 98. S. oxybeles, n in World review of the genus Strongylophthalmyia Heller (Diptera: Strongylophthalmyiidae). Part I: Introduction, morphology, species groups, and review of the Strongylophthalmyia punctata subgroup

FIGURES 91 – 96. Strongylophthalmyia morphological features. 98. S. oxybeles, n. sp., male antenna, left lateral view; 99. S. sichuanica, n. sp. male antenna, left lateral view; 100. S. sichuanica, n. sp., male palpus, left lateral view; 101. S. oxybeles, n. sp., male fore femur, left lateral view; 102. S. sichuanica, n. sp., male fore femur, left lateral view; 103. S. sichuanica, n. sp., male wing showing Wing Interference Pattern.

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Western Thrace Turkish: Phonology - Phonetic Features, Morphology and Syntax

These snippets present linguistic features of Western Thrace Turkish, a Balkan Turkish dialect spoken in Northeastern Greece. This lecture is part of the lecture series: Glottothèque: Languages of the Anatolia, Caucasus, Iran, Mesopotamia; grammatical snippets online (electronic resource). Bamberg, Cambridge, Göttingen, Moskow, Nicosia, Paris: LACIM network, at https://spw.uni-goettingen.de/projects/lacim/, edited by Christiane Bulut, Anaïd Donabédian-Demopoulos, Geoffrey Haig, Geoffrey Khan, Pollet Samvelian, Stavros Skopeteas, Nina Sumbatova.

Fig. 2 in Morphological Features Of The Digestive Tube In Sand Lizards, Lacerta Agilis (Sauria, Lacertidae)

Fig. 2. Fragment of microscopic structure of stomach wall of sand lizard: 1 — stomach wall; 2 — stomach contents; 3 — gastric glands; 4 — columnar epithelium; 5 — cubic epithelium. Hematoxilin and eosin. ×100; 400.

Fig. 5 in Morphological Features Of The Digestive Tube In Sand Lizards, Lacerta Agilis (Sauria, Lacertidae)

Fig. 5. Fragment of microscopic structure of large intestine of sand lizard: 1 — intestine wall; 2 — epithelial cells; 3 — lymphoid formations. Hematoxilin and eosin. ×100; 400.

Fig. 1 in Morphological Features Of The Digestive Tube In Sand Lizards, Lacerta Agilis (Sauria, Lacertidae)

Fig. 1. The topography of internal organs of sand lizard: (A): 1 — heart; 2 — lung; 3 — liver; 4 — stomach; 5 — small intestine; 6 — large intestine; 7 — ovary; (B): 1 — tongue; (C): 1 — stomach; 2 — pylorus; 3 — small intestine.

Fig. 3 in Morphological Features Of The Digestive Tube In Sand Lizards, Lacerta Agilis (Sauria, Lacertidae)

Fig. 3. Fragment of microscopic structure of duodenum of sand lizard: 1 — wall of villus; 2 — epithelial cells; 3 — stroma of villus. Hematoxilin and eosin. ×100; 400.

Fig. 4 in Morphological Features Of The Digestive Tube In Sand Lizards, Lacerta Agilis (Sauria, Lacertidae)

Fig. 4. Fragment of microscopic structure of jejunum of sand lizard: 1 — wall of villus; 2 — fragment of nutrition between two villi; 3 — epithelial cells; 4 — stroma of villus. Hematoxilin and eosin. ×100; 400.

Fig. 4 in The use of morphological and histological features as nutritional condition indices of Pagrus pagrus larvae

Fig. 4. Histological sections of Pagrus pagrus larvae, indicators of long term nutritional condition. Sagital section of 4 µm thick stained with Harris's hematoxylin and eosin counterstain (H-E). (a-c) nervous system, (d-f) cartilage, (g-i) muscle, (j-l) notochord; left = fed larvae, middle = delayed fed larvae and right = starved. hsn: heavily stained nucleus, ics: inter-cellular space, nc: notochord contraction, pn: prominent nucleus. Scale bar indicates 10 µm.

Fig. 1 in The use of morphological and histological features as nutritional condition indices of Pagrus pagrus larvae

Fig. 1. Mean values of morphometrical variables and standard error against larval age expressed as days after hatching (DAH) of Pagrus pagrus larvae from the different feeding treatments. BDA: body depth at the anus, ED: eye diameter, HD: head depth, SL: standard length. T0: before the experiment begins, T1: without food, T2: delayed feeding and T3: fed. Arrows indicate the moment when food was supplied to larvae in T3 (black) and T2 (dark grey). Initial condition of larvae (T0, white squares) was also included in order to allow comparisons.

Fig. 7 in The use of morphological and histological features as nutritional condition indices of Pagrus pagrus larvae

Fig. 7. Mean histological condition index (HCI) and standard error for Pagrus pagrus larvae calculated employing short or long term tissues and a mean value employing all tissues against larval age expressed as days after hatching (DAH) from the feeding treatments, a: without food (T1); b: delayed feeding (T2); c: fed (T3).

Fig. 5 in The use of morphological and histological features as nutritional condition indices of Pagrus pagrus larvae

Fig. 5. Mean histological condition index (HCI) and standard error for Pagrus pagrus larvae from the feeding treatments against larval age expressed as days after hatching (DAH). Different lowercase letters indicate significant differences (p<0.05) among feeding treatments, after one way ANOVA followed by post-hoc Tukey's test. Different capital letters indicate significant differences (p<0.05) among feeding treatments, after Kruskal Wallis test followed by multiple comparisons. T0: before the experiment begins, T1: without food, T2: delayed feeding and T3: fed.

Fig. 6 in The use of morphological and histological features as nutritional condition indices of Pagrus pagrus larvae

Fig. 6. Mean histological condition index (HCI) and standard error for Pagrus pagrus larvae from the feeding treatments calculated employing short or long term tissues and a mean value employing all tissues. Different letters indicate significant differences (p<0.05) among feeding treatments, after one way ANOVA followed by post-hoc Tukey's test. T1: without food, T2: delayed feeding and T3: fed, S: short term HCI, M: mean HCI, L: long term HCI.

Fig. 2 in The use of morphological and histological features as nutritional condition indices of Pagrus pagrus larvae

Fig. 2. Scatterplot of PC2 on PC1 for Pagrus pagrus larvae from the feeding treatments. a: PCA based upon normalized morphometrical variables; b: PCA based upon normalized morphometrical variables and observations grouped by feeding treatments. Correlations between the variables also showed. BDA: body depth at the anus, ED: eye diameter, HD: head depth. T1: without food, T2: delayed feeding and T3: fed. –N indicates normalized morphometrical variables.

Figure 5 in Suborders Acotylea and Cotylea (Polycladida): Study on morphological, ecological and reproductive features of some representative species from Tunisian coasts (Mediterranean)

Figure 5. Hatched juveniles and larvae in polyclads A: A twelve eyed juvenile of Leptoplana mediterranea, scale bar: 0.05 mm B: Götte's larva of Imogine mediterranea: lateral view, scale bar: 0.03 mm C: Müller's larva of Prosthiostomum siphunculus: lateral view, scale bar: 0.03 mm D: Müller's larva of Prosthiostomum siphunculus: apical view showing the three eyes (arrowheads), scale bar: 0.03 mm.

Figure 4 in Suborders Acotylea and Cotylea (Polycladida): Study on morphological, ecological and reproductive features of some representative species from Tunisian coasts (Mediterranean)

Figure 4. Copulatory apparatus in Discocelis tigrina. A: ventral view showing by transparency the ruffled pharynx (ph), the two uteri (ut), the two vasa deferentia, the common gonopore (cg), the common atrium (ca), the prostatoid organs (po) and the Lang's vesicle (Lv), scale bar: 0.5 mm. B: Section through common copulatory com; mon atrium (ca) showing prostatoid organs (po), vagina (v), uterus (ut) and vas deferens (vd) scale bar: 0.1 mm C: Diagrammatic reconstruction of copulatory apparatus. common gonopore (cg), common atrium (ca), ejaculatory duct (ed), Lang's vesicle (Lv), Penis (p) and prostatoid organs (po), scale bar: 0.1 mm.

Figure 2 in Suborders Acotylea and Cotylea (Polycladida): Study on morphological, ecological and reproductive features of some representative species from Tunisian coasts (Mediterranean)

Figure 2. Organs of attachment in Polyclads. A: ventral corrugated surface (cs) located between two genital pores of Echinoplana celerrima, scale bar: 0.2 mm. B: Genital pit (gp) in the acotylean Leptoplana mediterranea. This structure is located between the two genital pores. The two vasa deferentia (vd) unite in a common vas deferens (cvd) before entering the seminal vesicle (sv), scale bar: 0.2 mm. C. Ventral view of Prosthiostomum siphunculus showing a developed true sucker (ts) and a tubular pharynx (ph), scale bar: 1 mm.

Figure 3 in Suborders Acotylea and Cotylea (Polycladida): Study on morphological, ecological and reproductive features of some representative species from Tunisian coasts (Mediterranean)

Figure 3. Ovaries in polyclads A: Section through ovary of Echinoplana celerrima showing a ventral growing zone (grz) and a dorsal germinative zone (gmz), scale bar: 0.01 mm. B: Section through ovary of the cotylean Thysanozoon brocchii showing a ventral germinative zone (gmz) and a dorsal growing zone (grz), scale bar: 0.01 mm.

Figure 1 in Suborders Acotylea and Cotylea (Polycladida): Study on morphological, ecological and reproductive features of some representative species from Tunisian coasts (Mediterranean)

Figure 1. Anterior dorsal region in A: Echinoplana celerrima. See the tentacular (te) and cerebral eyes (ce) forming two paramedian bands, scale bar: 0.5 mm. B: Letoplana mediterranea. See clusters of tentacular (te) and cerebral eyes (ce), scale bar: 0.5 mm. C: Discocelis tigrina. Note the presence of cerebral and tentacular eyes clusters, scale bar: 0.5 mm. D: Imogine mediterranea. Note the presence of two everted nuchal tentacles (arrows), scale bar: 0.5 mm. E: Yungia aurantiaca. See the two marginal tentacles (arrows) and cerebral eyes spots (arrowhead), scale bar: 1 mm. F: Thysanozoon brocchii. Dorsal faces provided with papillae and developed marginal tentacles (arrows), scale bar: 1 mm. G: Prostheceraeus moseleyi. Note the presence of marginal tentacles (arrows) and yellow marginal line, scale bar: mm. H: Prosthiostomum siphunculus. The cerebral eyes (ce) are not included in the semi circle formed by marginal eyes (me), scale bar: 1 mm.