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6 protocols using p element mediated transformation

1

Generating Drosophila Transgenic Lines for Arf1 and Patronin Studies

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UAS‐NYFP‐Myc‐Arf1, UAS‐NYFP‐Myc‐Arf1T31N, UAS‐NYFP‐Myc‐Arf1Q71L, UAS‐NYFP‐Myc‐Patronin, and UAS‐CYFP‐HA‐Patronin transgenic flies were generated by P‐element‐mediated transformation (BestGene Inc.). BDSC 8622 [yw; P{CaryP}attP2] was used as the injection stock for site‐specific insertion of UAS‐NYFP‐Myc‐Arf1, UAS‐NYFP‐Myc‐Arf1T31N, UAS‐NYFP‐Myc‐Arf1Q71L, UAS‐NYFP‐Myc‐Patronin, and UAS‐CYFP‐HA‐Patronin into chromosomal location 68A4 (BestGene Inc.).
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2

Generation of Fluorescent Transgenic Flies

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UAS-Vib, UAS-Vib::Venus, UAS-VibT63A::Venus, UAS-VibT63E::Venus, UAS-PITPα::Venus, UAS-PITPβ::Venus, UAS-NYFP-Myc, UAS-CYFP-HA, UAS-NYFP-Myc-Vib and UAS-CYFP-HA-Sqh transgenic flies were generated by P-element-mediated transformation (BestGene Inc.). BDSC 8622 [yw; P{CaryP}attP2] was used as the injection stock for site-specific insertion of UAS-NYFP-Myc, UAS-CYFP-HA, UAS-NYFP-Myc-Vib and UAS-CYFP-HA-Sqh into chromosomal location 68A4 (BestGene Inc.).
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3

Generating Rab10 Transgenic Flies

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The Rab10 coding sequence was PCR-amplified from genomic DNA isolated from; UAS-YFP-Rab10; flies (Zhang et al., 2006 (link)). The PCR product was gel extracted, digested with BamHI and Xhol and cloned into the Gateway pENTR3C Dual Selection Entry Vector (Invitrogen). It was then recombined (LR clonase reaction, Invitrogen) into pTRW (uasT promoter, N-terminal mRFP tag) or pTFW (uasT promoter, N-terminal 3xFLAG tag) (Carnegie Drosophila Gateway Vector Collection). Transgenic flies were generated via P-element-mediated transformation (Best Gene).
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4

Fluorescent Genetic Clones in Drosophila Imaginal Discs

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Fluorescently labeled clones were produced in larval imaginal discs using the following strains: y, w, eyFLP1; Act>y+>Gal4, UAS–GFP; FRT82B, Tub-Gal80 (82B tester) and y, w, eyFLP1; Tub-Gal80, FRT40A; Act>y+>GAL4, UAS-GFP (40A tester). Additional strains used were as follows: GMR-GAL4, ptc-GAL4, ap-GAL4, sev-GAL4, UAS-GFP and pucE69 (puc-lacZ) were obtained from Bloomington Drosophila Stock Center. UAS-spzACT was gift from J.-M. Reichart (Ligoxygakis et al., 2002 (link)). Five independent UAS-Toll-6-IR transgenic lines generated from three different constructs were obtained from Vienna Drosophila Resource Center (VDRC). UAS-spz5HA was obtained from FlyORF. UAS-egr (Igaki et al., 2002 (link)), UAS-HepCA, UAS-dTAK1, UAS-hep-IR, UAS-bskDN, UAS-dTAK1DN and UAS-puc (Ma et al., 2012 (link)) were previously described. UAS-TollWT and UAS-Toll-6ACT-Flag transgenic flies were generated by standard P-element-mediated transformation (Bestgene, Inc.). More than five independent lines were produced and examined for each transgene. Two RNAi lines (v27102 and v27103) were recombined and used to perform experiments unless indicated. Gene expression was verified by immunostaining.
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5

Generation of Transgenic Fly Lines

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UAS-DDB1, UAS-DDB1RNAi-Res, UAS-Myc-Mahj, UAS-Myc-MahjR1120/1123E transgenic flies were generated by P-element-mediated transformation (BestGene).
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6

Generating Functional Myt1 Constructs

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D. melanogaster cDNA encoding dMyt1 was amplified with primers dMyt forward, CACCATGGAAAAGCATCATCG, and dMyt reverse, TCACTCGTCGTCATATTCCAGGA. Amplified DNA was subcloned into a pENTR vector by TOPO cloning (Invitrogen, Carlsbad, CA) and moved into destination vectors via Gateway recombineering. EGFP-tagged Myt1 was cloned into the UASp vector (Brand and Perrimon, 1993 (link)) for Gal4-inducible germline expression. We also made constructs directly controlled by a testes-specific β2-tubulin (tv3) promoter for expression in mid- to late-stage spermatocytes (Wong et al., 2005 (link)). Similar procedures were used to subclone Cdk1(WT), Cdk1(T14A), Cdk1Y15F), and Cdk1(T14A, Y15F) alleles into the β2-tubulin (tv3)-driven, GFP-tagged vector (a gift from J. Brill, University of Toronto, Canada) and to construct UASp-Wee1;VFP (details available on request). Transgenic strains were generated by P-element–mediated transformation (BestGene, Chino Hills, CA). The UASp-Myt1 reporter was tested for complementation of myt1-mutant bristle defects (Jin et al., 2008 (link)) by expressing EGFP-Myt1 in the sensory organ lineage with neuralized Gal-4 (Yeh et al., 2000 (link)). This fully rescued the myt1 bristle phenotype (100% normal bristles; unpublished data), confirming that EGFP-Myt1 was functional in vivo.
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