Eurema agave

Eurema agave (Figures 2–3). Chorion 853 µm long and 283 wide; three times as long as its maximum diameter; a length (l)/width (w) ratio almost 1/3 (h=7). Color N 00 A 10 M 00. Semifusiform and slightly oblong chorion, with convex base and apex; the apical region is somewhat wider than the basal region (Fig. 2 A). The micropyle or micropylar polygon is irregularly hexagonal and surrounded by a rosette of seven petals, one of them anchored to one of the six micropylar openings (Fig. 2 B – i). The micropylar polygon is depressed with respect to the rosette, but both have rounded edges (Fig. 2 B). The petals show a conspicuous anchorage to the polygon although all have thin lateral walls (Fig. 2 B). Petals do not exhibit texture as the foils (Fig. 2 B – C). The perimicropylar region shows an irregular wreath of 10 foils in a poorly defined semi-ring; the foils have curved edges and four to six irregular sides (Fig. 2 C). The walls of the foils and the external ones of the rosette have almost the same thickness as the rest of the exochorionic grid (Fig. 2 B – D). No transition zone posterior to the wreath is distinguished, only the most apical polygons with a marked rough texture compared to those of the perimicropylar zone (Fig. 2 C – ii, D). The apical pores, possibly aeropyles or hydropyles, start in the cells adjacent to the wreath; they are semicircular and located singly at the vertices of the polygons (Fig. 2 D – E). There are 4 – 6 aeropyles at vertices aligned in an apex-equator direction (Fig. 2 C), with an incipient rough texture in the lumen of the polygons (Fig. 2 E – iii). Axes and ribs are not distinct towards the equator, but a grid of irregular polygons with four to six sides (Fig. 2, Fig. 3 A). Almost all of the polygons show the same size (Fig. 3 A), although the apical ones are slightly more elongated (Fig. 2 A, D, E). A subtle rough texture is present, without forming striae (Fig. 3 A – i). The micro-grid is absent. Parallel to the chorionic equator, we recorded 18—20 polygons (Fig. 2 A). The grid goes from one pole to another (Fig. 2 A), conspicuous from the apex, and fades slightly towards the base (Fig. 3 B). The prebasal zone exhibits the same texture, but is more tenuous or with little relief (Fig. 3 B – C). The grid keeps its thickness until reaching the base, where aeropyles are observed at some vertices; 3–5 by alignment (Fig. 3 B – ii, C). In the basal area, the grid and texture are blurred, so it is recorded as almost smooth (Fig. 3 B). Eurema agave: Ecuador: Santo Domingo de los Tsáchilas, Jesús del Gran Poder, Bosque en recuperación Tanti (0°18’25” S, 79°03’26” W), 867 msnm, 15-IV-2011, J. Llorente y C. Hernández-Mejía (ABD-199).

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Publication Details

Journal
Zenodo (CERN European Organization for Nuclear Research)
Published
2025-04-14
DOI
https://doi.org/10.5281/zenodo.15230349
Primary Topic
Nonlinear Dynamics and Pattern Formation
Type
article
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article

Eurema agave

Zenodo (CERN European Organization for Nuclear Research)
Nonlinear Dynamics and Pattern Formation
article

Eurema agave

article en

Abstract

Eurema agave (Figures 2–3). Chorion 853 µm long and 283 wide; three times as long as its maximum diameter; a length (l)/width (w) ratio almost 1/3 (h=7). Color N 00 A 10 M 00. Semifusiform and slightly oblong chorion, with convex base and apex; the apical region is somewhat wider than the basal region (Fig. 2 A). The micropyle or micropylar polygon is irregularly hexagonal and surrounded by a rosette of seven petals, one of them anchored to one of the six micropylar openings (Fig. 2 B – i). The micropylar polygon is depressed with respect to the rosette, but both have rounded edges (Fig. 2 B). The petals show a conspicuous anchorage to the polygon although all have thin lateral walls (Fig. 2 B). Petals do not exhibit texture as the foils (Fig. 2 B – C). The perimicropylar region shows an irregular wreath of 10 foils in a poorly defined semi-ring; the foils have curved edges and four to six irregular sides (Fig. 2 C). The walls of the foils and the external ones of the rosette have almost the same thickness as the rest of the exochorionic grid (Fig. 2 B – D). No transition zone posterior to the wreath is distinguished, only the most apical polygons with a marked rough texture compared to those of the perimicropylar zone (Fig. 2 C – ii, D). The apical pores, possibly aeropyles or hydropyles, start in the cells adjacent to the wreath; they are semicircular and located singly at the vertices of the polygons (Fig. 2 D – E). There are 4 – 6 aeropyles at vertices aligned in an apex-equator direction (Fig. 2 C), with an incipient rough texture in the lumen of the polygons (Fig. 2 E – iii). Axes and ribs are not distinct towards the equator, but a grid of irregular polygons with four to six sides (Fig. 2, Fig. 3 A). Almost all of the polygons show the same size (Fig. 3 A), although the apical ones are slightly more elongated (Fig. 2 A, D, E). A subtle rough texture is present, without forming striae (Fig. 3 A – i). The micro-grid is absent. Parallel to the chorionic equator, we recorded 18—20 polygons (Fig. 2 A). The grid goes from one pole to another (Fig. 2 A), conspicuous from the apex, and fades slightly towards the base (Fig. 3 B). The prebasal zone exhibits the same texture, but is more tenuous or with little relief (Fig. 3 B – C). The grid keeps its thickness until reaching the base, where aeropyles are observed at some vertices; 3–5 by alignment (Fig. 3 B – ii, C). In the basal area, the grid and texture are blurred, so it is recorded as almost smooth (Fig. 3 B). Eurema agave: Ecuador: Santo Domingo de los Tsáchilas, Jesús del Gran Poder, Bosque en recuperación Tanti (0°18’25” S, 79°03’26” W), 867 msnm, 15-IV-2011, J. Llorente y C. Hernández-Mejía (ABD-199).

Zenodo (CERN European Organization for Nuclear Research)
Universidad Nacional Autónoma de México (MX)
Life in Land
Openalex Percentile: Top 52%
Nonlinear Dynamics and Pattern Formation
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