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microPublication / Biology / Genetic mapping of EgfrL.3.1 in...
Genetic mapping of EgfrL.3.1 in Drosophila melanogaster
Joyce Stamm1, Gnanda S Joshi2, MA Anderson2, Katie Bussing1, Colton Houchin1, Amber C Elinsky2, Jacob T Flyte2, Nadine Husseini2, Dominika Jarosz2, Chelsea L Johnson2, Abby F Johnson2, Christina E Jones2, Taj P Kooner2, Daniel Myhre1, Thomas N Rafaill2, Sarah Sayed2, Kirby W Swan2, Jonathan Toma2 and Jacob D Kagey2
1Department of Biology, University of Evansville
2Biology Department, University of Detroit Mercy
Correspondence to: Jacob D Kagey (kageyja@udmercy.edu)
A. Mosaic (FRT42D Dark82), and Dark82 EgfrL.3.1 (FRT42D Dark82EgfrL.3.1) eyes. In both eyes the homozygous mutant tissue is pigmented (w+mC). B. Region of chromosome 2R that failed to complement L.3.1 by deficiency mapping (2R:21,497,290..21,806,350). Arrow denotes location of Egfr gene. B is adapted from flybase.org (Gramates et al., 2017).

Description

An EMS screen was conducted utilizing the Flp/FRT system to identify mutations that caused an array of phenotypic alterations in the size of the eye including the ratio of mutant to wild type tissue (red over white) or the developmental patterning of the mosaic eye. This screen was done in the genetic background of blocked apoptosis in the homozygous mutant cells to identify conditional regulators of cell growth and eye development (Kagey et al., 2012). The block in apoptosis in the mosaic mutant tissue was achieved by using a FRT42D Dark82 chromosome as a starting point for the EMS mutagenesis (Akdemir et al., 2006). The Dark82 allele was generated by an imprecise excision of the P{lacW}ArkCD4, this allele retains the w+mC (Akdemir et al., 2006) One of the mutants identified was L.3.1 which generated a small rough eye mosaic phenotype, with a smaller percentage of pigmented tissue than the FRT42D, Dark82 control (Figure 1A). The Dark82 mosaic eye is approximately 60% pigmented tissue, while the Dark82 L.3.1 mosaic eye was smaller overall and approximately 50% mutant tissue (w+mC). The ‘rough eye’ phenotype indicates a disruption in the ommatidial organization. In both images the pigmented (w+mC) tissue is homozygous mutant and the unpigmented tissue is homozygous wild type.

 

The genetic mapping of the location of mutant L.3.1 was done by two independent groups of undergraduate researchers at the University of Detroit Mercy and University of Evansville in undergraduate genetics laboratory courses as part of the Fly-CURE consortium (Bieser et al., 2018). Complementation mapping was conducted independently and the results confirmed between groups. Virgin females from the FRT42D L.3.1 Dark82/CyO stock were mated in series to male flies from the 87 deficiency stocks that comprise the Bloomington Stock Center 2R Deficiency Kit (only stocks distal to the FRT42D site were used for mapping) (Cook et al., 2012). Mutant L.3.1 failed to complement Deficiency stock Df(2R)BSC664 (2R:21,341,647..21,872,028), while complementing the flanking overlapping deficiencies Df(2R)BSC821 and Df(2R)BSC597. This left a region of failure to complement of 2R:21,497,290..21,806,350, which is pictured above in Figure 1 B. Lethal alleles of candidate genes within this region were mated independently to L.3.1 to test for complementation. L.3.1 failed to complement an apparent loss of function allele Egfrk05115 (Dworkin et. al. 2006), indicating that L.3.1 is likely a novel Egfr allele, EgfrL.3.1.

Reagents

FRT42D Dark82/CyO (Akdemir et al., 2006)

FRT42D Dark82  EgfrL.3.1/CyO (this manuscript)

Ey>Flp; FRT42D (BDSC 5616)

y1 w67c23; P{w+mC=lacW}Egfrk05115/CyO (BDSC 10385)

Bloomington Drosophila Stock Center 2R Deficiency Kit (Cook et al., 2012):

w1118; Df(2R)BSC664/SM6a

w1118; Df(2R)BSC821, P+PBac{ w+mC =XP3.RB5}BSC821/SM6a

w111]; Df(2R)BSC597/SM6a

References

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Gramates LS, Marygold SJ, Santos GD, Urbano JM, Antonazzo G, Matthews BB, Rey AJ, Tabone CJ, Crosby MA, Emmert DB, Falls K, Goodman JL, Hu Y, Ponting L, Schroeder AJ, Strelets VB, Thurmond J. Zhou P, the FlyBase Consortium. FlyBase at 25: looking to the future. Nucleic Acids Res. 2017. Jan 4;45(D1)D663-D671
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Reviewed By

Anonymous

History

Received: March 25, 2019
Accepted: April 8, 2019
Published: April 26, 2019

Copyright

© 2019 by the authors. This is an open-access article distributed under the terms of the Creative Commons Attribution 4.0 International (CC BY 4.0) License, which permits unrestricted use, distribution, and reproduction in any medium, provided the original author and source are credited.

Citation

Stamm, J; Joshi, GS; Anderson, M; Bussing, K; Houchin, C; Elinsky, AC; Flyte, JT; Husseini, N; Jarosz, D; Johnson, CL; Johnson, AF; Jones, CE; Kooner, TP; Myhre, D; Rafaill, TN; Sayed, S; Swan, KW; Toma, J; Kagey, JD (2019). Genetic mapping of EgfrL.3.1 in Drosophila melanogaster. microPublication Biology. 10.17912/micropub.biology.000098.
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