The kinetics of embryo drying in Drosophila melanogaster as a function of the steps in permeabilization: Experimental

The Drosophila embryo is surrounded by an outer chorion and an inner vitelline membrane that are an effective barrier to the movement of water. The chorion can be removed by 2.5% hypochlorite (1). If surface water is then removed by isopropanol (2), the vitelline membrane can be rendered permeable t...

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Veröffentlicht in:Journal of insect physiology 1996, Vol.42 (5), p.501-516
Hauptverfasser: Schreuders, P.D., Kassis, J.N., Cole, K.W., Schneider, U., Mahowald, A.P., Mazur, P.
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container_end_page 516
container_issue 5
container_start_page 501
container_title Journal of insect physiology
container_volume 42
creator Schreuders, P.D.
Kassis, J.N.
Cole, K.W.
Schneider, U.
Mahowald, A.P.
Mazur, P.
description The Drosophila embryo is surrounded by an outer chorion and an inner vitelline membrane that are an effective barrier to the movement of water. The chorion can be removed by 2.5% hypochlorite (1). If surface water is then removed by isopropanol (2), the vitelline membrane can be rendered permeable to water by heptane containing 0.3% 1-butanol (3). Here, we determined quantitatively the effects of these three steps on the permeability of the embryo to water. Permeability was assessed by exposing embryos to air at 22–23 °C and approx. 56% r.h. and determining weight loss with time. We also determined the effect of the three permeabilization steps on the water and solids contents of the embryos initially, after equilibration with air, and after complete drying. The intact embryo contains 76% ( w w ) water and 24% solids. The successive permeabilization steps produce small increases in the former and small decreases in the latter. Intact embryos require 5–12h to lose half their water, the longer times being applicable to older embryos. After permeabilization steps (1), (1) + (2), and (1) + (2) + (3) the times for 50% water loss decrease to 1.6, 1.9, and 0.1 h, respectively.
doi_str_mv 10.1016/0022-1910(95)00122-0
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The chorion can be removed by 2.5% hypochlorite (1). If surface water is then removed by isopropanol (2), the vitelline membrane can be rendered permeable to water by heptane containing 0.3% 1-butanol (3). Here, we determined quantitatively the effects of these three steps on the permeability of the embryo to water. Permeability was assessed by exposing embryos to air at 22–23 °C and approx. 56% r.h. and determining weight loss with time. We also determined the effect of the three permeabilization steps on the water and solids contents of the embryos initially, after equilibration with air, and after complete drying. The intact embryo contains 76% ( w w ) water and 24% solids. The successive permeabilization steps produce small increases in the former and small decreases in the latter. Intact embryos require 5–12h to lose half their water, the longer times being applicable to older embryos. After permeabilization steps (1), (1) + (2), and (1) + (2) + (3) the times for 50% water loss decrease to 1.6, 1.9, and 0.1 h, respectively.</abstract><pub>Elsevier Ltd</pub><doi>10.1016/0022-1910(95)00122-0</doi><tpages>16</tpages></addata></record>
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subjects air drying
body water
butanol
chemical treatment
dechorionation
Diptera
Drosophila melanogaster
Drosophilidae
embryo (animal)
Embryo dehydration
embryo permeabilization
embryo solids
embryo water loss
heptane
isopropyl alcohol
kinetics
Membrane permeability
membranes
Permeabilization protocol
removal
vitelline membrane
Water and solids content
water content
title The kinetics of embryo drying in Drosophila melanogaster as a function of the steps in permeabilization: Experimental
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