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75 results for “Garypus”
Fig. 8 in Fig. 2 in Garypus sanasai Lin, Huang & Chang 2022, sp. nov.
Fig. 8. Our current understanding of the signaling network involved in the Bombyx embryonic diapause process. See text for details.
Fig. 7 in Fig. 2 in Garypus sanasai Lin, Huang & Chang 2022, sp. nov.
Fig. 7. Changes in mRNA expression levels of PP1-C (A) and PP4-C (B) in diapause eggs and diapause-destined eggs treated with HCl 20 h after oviposition to prevent the eggs from entering diapause. Egg extracts from each stage were then prepared, and mRNA expression levels were determined by qRT-PCR. The mRNA expression levels of PP1-C and PP4-C relative to rp49 were standardized to the means of day 0 of diapause eggs and are represented as the relative amount ± SEM (n = 4). Circles, HCl-treated eggs; squares, diapause eggs.
Fig. 1 in Fig. 2 in Garypus sanasai Lin, Huang & Chang 2022, sp. nov.
Fig. 1. Western blot analysis of PP1-C, PNUTS, and PP4-C in silkworm eggs. Following SDS-PAGE and immunoblotting, silkworm egg extracts (a quarter of one egg for each lane) were probed with anti-PP1α (PP1), anti-PNUTS (PNUTS), anti-PP4-C (PP4), and anti-HSP 90 (HSP) antibodies. (A) Results from day 4. D4, extracts from day 4 diapause eggs; H4, extracts from eggs whose diapause was prevented by HCl (4 days after HCl treatment). (B) Results from day 7. D7, extracts from day 7 diapause eggs; H7, extracts from eggs whose diapause was prevented by HCl (7 days after HCl treatment). Results shown in the left panel are representative of four independent experiments. Each protein band was quantified and normalized to the level of HSP in the right panel. Asterisks indicate significant differences compared to respective diapause eggs (by Student's t-test, ** p <0.01).
Fig. 5 in Fig. 2 in Garypus sanasai Lin, Huang & Chang 2022, sp. nov.
Fig. 5. Western blot analysis of protein levels of PP1-C, PNUTS, and PP4-C in eggs in which diapause had been terminated by chilling of diapausing eggs at 5°C for 70 days and then transferred to 25°C. Egg lysates from each stage after being transferred to 25°C were prepared and subjected to an immunoblot analysis with anti-PP1α (PP1), anti-PNUTS (PNUTS), anti-PP4-C (PP4), and anti-HSP 90 (HSP) antibodies. Lysates from a quarter of one egg were used for each lane. Molecular weight markers are shown on the right side of the gel (A). Results shown in the upper panel are representative of four independent experiments. Quantified protein levels relative to HSP were standardized to levels from the first day after transfer to 25°C. Different letters above the bars indicate significant differences (ANOVA followed by Tukey's test).
Fig. 3 in Fig. 2 in Garypus sanasai Lin, Huang & Chang 2022, sp. nov.
Fig. 3. Western blot analysis of protein levels of PP1-C, PNUTS, and PP4-C in diapause eggs. Egg lysates from each stage after oviposition were prepared and subjected to an immunoblot analysis with anti-PP1α (PP1), anti-PNUTS (PNUTS), anti-PP4-C (PP4), and anti-HSP 90 (HSP) antibodies. Lysates from a quarter of one egg were used for each lane. Molecular weight markers are shown on the right side of the gel (A). Results shown in the upper panel are representative of four independent experiments. Quantified protein levels relative to HSP were standardized to levels from the first day after oviposition. Different letters above the bars indicate significant differences (ANOVA followed by Tukey's test).
Fig. 10 in Garypus sanasai Lin, Huang & Chang 2022, sp. nov.
Fig. 10. (A) Gastropteron minutum; (B) Siphopteron makisig; (C) Philine paucipapillata; (D) Paromoionchis tumidus; (E) Lobiger sagamiensis; (F) Oxynoe viridis; (G) Costasiella cf. kuroshimae; (H) Ercolania boodleae; (I) Placida daguilarensis; (J) Placida kevinleei; (K) Stiliger ornatus; (L) Elysia flavomacula; (M) Elysia cf. japonica; (N) Elysia leucolegnote; (O) Elysia marginata; (P) Elysia obtusa; (Q) Elysia trisinuata; (R) Elysia verrucosa. Photographs by Alice Au (A), AFCD | Kevin Kin Chung Leung (B), Tim Lam (C, H–K), Chandler Tsang (D), AFCD (E, F, M, Q), Grape Tang (G), Gomen See (L), Sunny Chan (N), AFCD | Joseph Leung (O), Markus Rummel (P) and Simon Lorenz (R).
Fig. 8 in Garypus sanasai Lin, Huang & Chang 2022, sp. nov.
Fig. 8. (A) Roboastra cf. tentaculata; (B) Gymnodoris alba; (C) Gymnodoris amakusana; (D) Gymnodoris citrina; (E) Gymnodoris impudica; (F) Gymnodoris inornata; (G) Gymnodoris nigricolor; (H) Gymnodoris sp.; (I) Polycera fujitai; (J) Polycera sp.; (K) Kaloplocamus acutus; (L) Kaloplocamus ramosus; (M) Plocamopherus ceylonicus; (N) Plocamopherus tilesii; (O) Pleurobranchaea brockii; (P) Berthellina citrina; (Q) Pleurobranchus forskalii; (R) Pleurobranchus peronii. Photographs by Tim Lam (A, C, F–H, L, M, O, P), AFCD (B, E, Q), Sze Yiu Ng (D, K), WK Chow (I), Gomen See (J, N) and Wai Hong Yiu (R).
Fig. 5 in Garypus sanasai Lin, Huang & Chang 2022, sp. nov.
Fig. 5. (A) Ceratosoma trilobatum; (B) Hypselodoris apolegma; (C) Hypselodoris confetti; (D) Hypselodoris decorata; (E) Hypselodoris festiva; (F) Hypselodoris katherinae; (G) Hypselodoris maritima; (H) Hypselodoris placida; (I) Mexichromis multituberculata; (J) Mexichromis similaris; (K) Thorunna florens; (L) Atagema intecta; (M) Atagema spongiosa; (N) Atagema sp.; (O) Carminodoris pustulata; (P) Jorunna parva; (Q) Jorunna cf. ramicola; (R) Platydoris ellioti. Photographs by Tim Lam (A, C, D, F, H–J, L–Q), AFCD | Wai Hong Yiu (B), Sze Yiu Ng (E, G), Alice Au (K) and Caron Ka Lok Wong (R).
Fig. 4 in Garypus sanasai Lin, Huang & Chang 2022, sp. nov.
Fig. 4. (A) Chromodoris mandapamensis; (B) Chromodoris orientalis; (C) Chromodoris striatella; (D) Diversidoris aurantionodulosa; (E) Doriprismatica atromarginata; (F) Glossodoris acosti; (G) Goniobranchus aureopurpureus; (H) Goniobranchus collingwoodi; (I) Goniobranchus fidelis; (J) Goniobranchus geometricus; (K) Goniobranchus hintuanensis; (L) Goniobranchus setoensis; (M, N) Goniobranchus sinensis; (O) Goniobranchus tumuliferus; (P) Goniobranchus cf. verrieri; (Q) Verconia hongkongiensis; (R) Verconia nivalis. Photographs by Anniqua Law (A), Sze Yiu Ng (B, O), Simon Lorenz (C), Tim Lam (D–G, I, L, M, P–R), AFCD | Ho Nam Lam (H), AFCD (J), Cherie Wong (K) and AFCD | Yat Sing Lau (N).
Fig. 6 in Fig. 2 in Garypus sanasai Lin, Huang & Chang 2022, sp. nov.
Fig. 6. Changes in PP1 enzymatic activity in Bombyx eggs. A, diapause eggs; B, non-diapause eggs; C, eggs whose diapause initiation was prevented by HCl; D, eggs in which diapause had been terminated by chilling. Egg extracts from each stage were prepared, and PP1 enzymatic activity was determined with a PP1 assay kit. The data represent mean ± SEM of four separate assays.
Fig. 11 in Garypus sanasai Lin, Huang & Chang 2022, sp. nov.
Fig. 11. (A) Elysia sp. 1; (B) Elysia sp. 2; (C) Thuridilla gracilis. Photographs by Tim Lam (A, B) and AFCD (C).
Fig. 7 in Garypus sanasai Lin, Huang & Chang 2022, sp. nov.
Fig. 7. (A) Trapania aurata; (B) Trapania darvelli; (C) Trapania japonica; (D) Trapania miltabrancha; (E) Dendrodoris arborescens; (F, G) Dendrodoris fumata; (H) Dendrodoris krusensternii; (I, J) Dendrodoris nigra; (K) Dendrodoris sp.; (L) Doriopsilla miniata; (M) Phyllidia ocellata; (N) Phyllidia varicosa; (O) Phyllidiella pustulosa; (P) Phyllidiopsis cardinalis; (Q) Kalinga ornata; (R) Tambja cf. pulcherrima; Photographs by Tim Lam (A–C, G, K, N, Q, R), Dik Cheung (D), Sze Yiu Ng (E), AFCD (F, J, M, P) and Gomen See (H, I, L, O).
Fig. 3 in Garypus sanasai Lin, Huang & Chang 2022, sp. nov.
Fig. 3. (A) Phestilla fuscostriata; (B) Phestilla goniophaga; (C) Phestilla lugubris; (D, E) Phestilla melanobrachia; (F) Phestilla sp.; (G) Trinchesia ornata; (H) Trinchesia yamasui; (I) Trinchesia sp.; (J) Unidentia aliciae; (K) Madrella ferruginosa; (L) Marionia echinomuriceae; (M) Marionia cf. rubra; (N) Tritonia sp.; (O) Actinocyclus papillatus; (P) Chromodoris dianae; (Q) Chromodoris lineolata; (R) Chromodoris magnifica. Photographs by AFCD | Henry Tat Heng Ho (A), Gary To (B), Tim Lam (C, F, J, K, N), AFCD (D, E, H, L, M, O, P), Grape Tang (G), Alice Au (I), Gomen See (Q) and AFCD | Chi Hung Yip (R).
Fig. 6 in Garypus sanasai Lin, Huang & Chang 2022, sp. nov.
Fig. 6. (A) Rostanga bifurcata; (B) Rostanga dentacus; (C) Sclerodoris apiculata; (D) Doriopsis granulosa; (E) Doris sp.; (F) Homoiodoris japonica; (G) Aegires exeches; (H) Aegires villosus; (I) Diaphorodoris mitsuii; (J) Goniodoridella savignyi; (K) Goniodoris felis; (L) Goniodoris sp.; (M) Okenia barnardi; (N) Okenia hiroi; (O) Okenia japonica; (P) Okenia pilosa; (Q) Okenia plana; (R) Okenia sp. Photographs by Tim Lam (A–G, I– M, O–R), Grape Tang (H) and Gary To (N).
Fig. 2 in Garypus sanasai Lin, Huang & Chang 2022, sp. nov.
Fig. 2. (A) Dermatobranchus albus; (B) Dermatobranchus tongshanensis; (C) Dermatobranchus sp. 1; (D) Dermatobranchus sp. 2; (E) Bornella stellifera; (F) Doto sp. 2; (G, H) Doto sp. 3; (I) Lomanotus vermiformis; (J) Lomanotus sp.; (K) Notobryon wardi; (L) Melibe cf. japonica; (M) Abronica purpureoanulata; (N) Coryphellina lotos; (O) Flabellina sp.; (P) Eubranchus rubropunctatus; (Q) Samla bicolor; (R) Catriona pinnifera. Photographs by Tim Lam (A–E, G, I, L, M, R), AFCD (F, H, P), Alice Au (J), Tom Chan (K), Gary To (N), AFCD | Henry Tat Heng Ho (O), Henry Li (P) and Markus Rummel (Q).
Fig. 9 in Garypus sanasai Lin, Huang & Chang 2022, sp. nov.
Fig. 9. (A) Aplysia argus; (B) Aplysia concava; (C) Aplysia japonica; (D) Aplysia kurodai; (E) Aplysia nigrocincta; (F) Aplysia oculifera; (G) Aplysia sp.; (H) Bursatella leachii; (I) Dolabrifera dolabrifera; (J) Haloa japonica; (K) Chelidonura amoena; (L) Chelidonura hirundinina; (M) Niparaya regiscorona; (N) Niparaya sp.; (O) Philinopsis falciphallus; (P) Philinopsis speciosa; (Q) Tubulophilinopsis lineolata; (R) Tubulophilinopsis pilsbry. Photographs by Tim Lam (A–D, G, K, M, O, P), Sze Yiu Ng (E), Gomen See (F, H, I), AFCD (J), Bell Kwok (L), Alice Au (N), Grape Tang (Q) and Peggie Hon (R).
Fig. 4 in Fig. 2 in Garypus sanasai Lin, Huang & Chang 2022, sp. nov.
Fig. 4. Western blot analysis of protein levels of PP1-C, PNUTS, and PP4-C in non-diapause eggs. Egg lysates from each stage after oviposition were prepared and subjected to an immunoblot analysis with anti-PP1α (PP1), anti-PNUTS (PNUTS), anti-PP4-C (PP4), and anti-HSP 90 (HSP) antibodies. Lysates from a quarter of one egg were used for each lane. Molecular weight markers are shown on the right side of the gel (A). Results shown in the upper panel are representative of four independent experiments. Quantified protein levels relative to HSP were standardized to levels from the first day after oviposition. Different letters above the bars indicate significant differences (ANOVA followed by Tukey's test).
Fig. 2 in Fig. 2 in Garypus sanasai Lin, Huang & Chang 2022, sp. nov.
Fig. 2. Effect of HCl treatment on protein levels of PP1-C, PNUTS, and PP4-C during the first 8 days after treatment. Diapause-destined eggs that had been incubated at 25°C for 20 h after oviposition were treated with HCl and then incubated at 25°C. Egg lysates from each stage were prepared and subjected to an immunoblot analysis with anti-PP1α (PP1), anti-PNUTS (PNUTS), anti-PP4-C (PP4), and HSP 90 (HSP) antibodies. Lysates from a quarter of one egg were used for each lane. Molecular weight markers are shown on the right side of the gel (A). Results shown in the upper panel are representative of four independent experiments. Quantified protein levels relative to HSP were standardized to levels from the first day after HCl treatment. Different letters above the bars indicate significant differences (ANOVA followed by Tukey's test).
Fig. 1 in Garypus sanasai Lin, Huang & Chang 2022, sp. nov.
Fig. 1. (A) Hydatina physis; (B) Anteaeolidiella lurana; (C) Baeolidia salaamica; (D) Bulbaeolidia alba; (E) Cerberilla ambonensis; (F) Spurilla braziliana; (G) Caloria indica; (H) Cratena cf. poshitraensis; (I) Cratena sp.; (J) Facelina sp.; (K) Favorinus sp.; (L) Phidiana anulifera; (M) Phidiana militaris; (N) Sakuraeolis enosimensis; (O) Sakuraeolis sp.; (P) Godiva cf. rachelae; (Q) Phyllodesmium magnum; (R) Phyllodesmium opalescens. Photographs by Harmon Wong (A), Tim Lam (B–D, G–I, K, L, P, R), Rachel Wong (E), AFCD (F, Q), Henry Li (J), Caron Ka Lok Wong (M), Gary To (N) and Alice Au (O).
Fig. 2. Pseudohelice annamalai n in Fig. 6 in Garypus sanasai Lin, Huang & Chang 2022, sp. nov.
Fig. 2. Pseudohelice annamalai n. sp. A, carapace; B, outer view of male left cheliped; C, left male infraorbital ridge; D, E, left female infraorbital ridge (D, form I; E, form II); F, G, dorsal view of right G1; H, I, ventral view of right G1; J, K, right vulva (J, form I; K, form II). A, B, male, CASAU CR-1013 (18.9 × 15.2 mm); C, F–I, holotype male, CASAU CR 1011 (17.3 × 14.6 mm); D, female, NCHUZOOL 17049 (18.8 × 16.4 mm); E, J, female, ZRC 2022.0189 (18.1 × 15.4 mm); K, female, NCHUZOOL 17049 (13.9 × 11.6 mm).
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