Volume 22, Issue 7, Pages (April 2012)

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Volume 22, Issue 7, Pages 601-607 (April 2012) The Medaka zic1/zic4 Mutant Provides Molecular Insights into Teleost Caudal Fin Evolution  Yuuta Moriyama, Toru Kawanishi, Ryohei Nakamura, Tatsuya Tsukahara, Kenta Sumiyama, Maximiliano L. Suster, Koichi Kawakami, Atsushi Toyoda, Asao Fujiyama, Yuuri Yasuoka, Yusuke Nagao, Etsuko Sawatari, Atsushi Shimizu, Yuko Wakamatsu, Masahiko Hibi, Masanori Taira, Masataka Okabe, Kiyoshi Naruse, Hisashi Hashimoto, Atsuko Shimada, Hiroyuki Takeda  Current Biology  Volume 22, Issue 7, Pages 601-607 (April 2012) DOI: 10.1016/j.cub.2012.01.063 Copyright © 2012 Elsevier Ltd Terms and Conditions

Figure 1 Transposon Insertion Impairs Transcriptional Regulation of zic1/zic4 in Da (A and F) Lateral views of female WT medaka and Da mutant are shown, with the anterior to the left. The Da mutant exhibits ventralized pigmentation (white arrowhead), altered median fin morphology (dashed line), a tear-drop body shape, and diphycercal-like caudal skeleton (red arrowhead). The scale bar represents 5 mm. (B, C, G, and H) Caudal skeletal morphology (B and G) and its schematic diagram (C and H) of WT and Da. Red, green, and blue color represents centrum, dorsal, and ventral components of vertebrae respectively. Asterisks indicate hypurals. Arrowheads indicate epurals. E, epural; E′, epural-like element in Da; H, hypural; H′, hypural-like element in Da; PH, parhypural; NS, neural spine; HS, haemal spine; U, urostyle, 29, 29th vertebra; 30, 30th vertebra. The scale bar represents 2 mm. (D and I) zic1 expression in WT and Da at the 19-somite stage (st. 25). Arrowheads indicate somites. The scale bar represents 0.1 mm. (E and J) zic1 expression in the ural region of WT and Da embryos at 4 days post fertilization (st. 33). Brackets indicate the domain of zic1 expression in the ural region in WT (E) and corresponding region in Da (J). The scale bar represents 0.1 mm. (K) The Albatross transposon is inserted downstream of zic4 in the Da mutant genome. Direct and inverted repeats are shown in green and blue, respectively. (L) Homology comparison of the zic1/zic4 region. Insertion point of the Albatross is indicated by an arrow. (M–O) Modified BAC clones and expression patterns of GFP in transgenic embryos at st. 25 and st. 33. Panels show lateral views, with the anterior to the left. Arrowheads indicate the somites. Arrows indicate the dorsal tails. Current Biology 2012 22, 601-607DOI: (10.1016/j.cub.2012.01.063) Copyright © 2012 Elsevier Ltd Terms and Conditions

Figure 2 zic1/zic4 Expression in Mesodermal Tissues Rescue the Da Phenotype (A–D) Each panel contains the BAC constructs (left), the external morphology of adult female fish homozygous for each BAC and caudal skeletal morphology (center), and expression patterns of zic1 and zic4 in these transgenic embryos (st. 25 and st. 33; right). Red, green, and blue color in schematic diagrams represents centrum, dorsal, and ventral components of vertebrae, respectively. Panels show lateral views, with the anterior to the left. The scale bar represents 5 mm. (A) In control BAC-transgenic fish, in which both zic1 and zic4 coding regions were replaced with reporter genes (zic1:GFP/zic4:DsRed), no phenotypic change is observed. zic1/zic4 expression in mesodermal tissues does not change. (B) In BAC-transgenic fish introduced zic1-intact BAC with zic4 inactivated (zic1/zic4:DsRed), the Da mutant phenotypes are rescued. zic1 expression in mesodermal tissues is rescued (black arrowhead and arrow), whereas zic4 expression is not. (C) In BAC-transgenic fish introduced zic4-intact BAC with zic1 inactivated (zic1:GFP/zic4), the Da mutant phenotypes are rescued. zic4 expression in mesodermal tissues is rescued (black arrowhead and arrow), whereas zic1 expression is not. (D) In BAC-transgenic fish introduced both zic1 and zic4-intact BAC (zic1/zic4), the Da phenotypes are rescued. zic1 and zic4 expression in mesodermal tissues are rescued (black arrowheads and arrows). Red arrows indicate directions of urostyles. Black arrowheads indicate restored zic expression in somites. Black arrows indicate restored zic expression in ural mesenchyme. Current Biology 2012 22, 601-607DOI: (10.1016/j.cub.2012.01.063) Copyright © 2012 Elsevier Ltd Terms and Conditions

Figure 3 Development of Terminal Axis Bending in WT and Da (A–F) Development of terminal axis bending and subsequent caudal skeletal morphogenesis in WT (A–C) and Da (D–F) at st. 30, 33, and 39. Lateral views of female WT medaka and Da mutant are shown, with the anterior to the left. Black arrowheads indicate cell aggregation in ventral CSM (st. 33) and hypurals (st. 39). Red arrowheads indicate ectopic cell aggregation in dorsal CSM (st. 33) and ectopic epurals (st. 39) in Da. (C and F) Alcian blue staining samples at st. 39. (G–N) xirp2 expression pattern detected by whole-mount in situ hybridization indicates the fusion of caudal somites in WT (G–J) and Da (K–N). At stage 30, 35 somites are formed (G, H, K, and L). At stage 33, 31 to 35th somites are fused (I, J, M, and N). Red lines indicate borders of somites. Arrowheads indicate position and number of posterior-most borders of xirp2 signals. (O) A schematic diagram of st. 33 embryo. Bars indicate levels of the sections shown in (P)–(V). Asterisk indicates the position of the cloaca. (P–R″) Histology of the trunk, tail, and ural regions in WT (P, P′, P″) and Da (Q, Q′, Q″) at st. 33. Black arrowheads indicate cell aggregation in ventral CSM. Red arrowheads indicate ectopic cell aggregation in dorsal CSM in Da. Each tissue is illustrated in R, R′, and R″. NT, neural tube; NC, notochord. (S–U″) Expression pattern of zic1 in WT (S, S′, S″) and Da (U, U′, U″) at st. 33. Black arrowheads indicate zic1 expression in dorsal CSM (S″). Dashed lines indicate horizontal myoseptum. (T, T′, V, and V′) Expression pattern of twist in WT (T, T′) and Da (V, V′) at st. 33. Black arrowheads indicate strong twist expression in ventral CSM. Red arrowheads indicate upregulated twist expression in dorsal CSM in Da (V). Dashed lines indicate horizontal myoseptum. Current Biology 2012 22, 601-607DOI: (10.1016/j.cub.2012.01.063) Copyright © 2012 Elsevier Ltd Terms and Conditions

Figure 4 zic1 Expression in the Dorsal CSM in Darcf and zebrafish and Caudal Skeletons and Vertebrate Phylogeny (A) Lateral views of Darcf. The Darcf exhibits rescued phenotype only in caudal fin with a ventralized trunk (Da-like dorsal fins and pigmentation). The scale bar represents 5 mm. (B and C) Caudal skeletal morphology (B) and its schematic diagram (C) of Darcf. Red, green, and blue color represents centrum, dorsal, and ventral components of the caudal skeleton, respectively. Darcf exhibits a normal caudal skeleton. The scale bar represents 2 mm. (D) Schematic diagram of primers and the results of PCR for each primer set and template. Darcf has Albatross at the insertion site identical to that of original Da. (E–G) zic1 expression in Darcf. zic1 expression in the dorsal CSM is almost completely recovered in Darcf, whereas these of trunk and tail remained low. Black arrowheads indicate zic1 expression in the dorsal CSM. Dashed lines indicate horizontal myoseptum. (H–K) Lateral view of a zebrafish embryo at 48 hpf and histology of the trunk, tail, and ural region. CSM-like cell aggregation is observed in the ural region (K). Red lines indicate the levels of sections at trunk, tail, and ural region. The scale bar represents 0.5 mm. (L–O) zic1 expression in zebrafish. zic1 expression in the dorsal CSM is observed. A bracket indicates the domain of zic1 expression in the CSM. A black arrowhead indicates zic1 expression in the dorsal CSM. (P) Various types of caudal skeletons (heterocercal, homocercal, and diphycercal) are depicted in the schematic phylogenetic tree of vertebrates. Arrowheads indicate the direction of caudal vertebrae. Current Biology 2012 22, 601-607DOI: (10.1016/j.cub.2012.01.063) Copyright © 2012 Elsevier Ltd Terms and Conditions