‘Forces of Fate 2’, 2025.
Acrylic on canvas, 60 x 60 cm.

This work, inspired by the PhD research of Dr. Camilla Autorino in Dr. Nicoletta Petridou’s lab, represents an early zebrafish embryo viewed from a lateral perspective, revealing the animal pole at the top and the vegetal pole at the bottom. Conceived as a continuation of the Forces of Fate series, the painting explores how molecular diffusion and mechanical properties shape the embryo along the animal–vegetal axis. The same palette used in Forces of Fate 1 is employed here, with ultramarine blue, cadmium yellow, deep cadmium red, and ivory. The composition features a warm, luminous center of yellow, red, and orange tones, set against a surrounding field of blue.

The vegetal pole is defined by the presence of the light-colored yolk, which occupies the lower region of the composition. Its pale tonality helps emphasize this domain, while a subtle texture created using stamps of real flowers and leaves introduces an organic, almost fossil-like quality to the surface. Above the yolk, cells with different degrees of rigidity become visible, highlighting mechanical variation within the early embryo. The diffusion of the signaling molecule Nodal is represented in orange, spreading upward from the vegetal region and increasing both connectivity and rigidity in the blastoderm immediately above the yolk.

At a scientific level, Forces of Fate 2 visualizes the diffusion of Nodal and the resulting differential rigidity of the early zebrafish embryo along the animal–vegetal axis. In the background, a geometric polygonal pattern unfolds in multiple shades of blue, interconnected by an ivory network that evokes as an abstract connectivity map between cells. This underlying structure reinforces the idea that embryonic development emerges from the interplay between molecular signaling, mechanical forces, and cellular communication.

In Forces of Fate 2, gradients, rigidity, and connectivity converge as visual metaphors for pattern formation and fate specification, inviting reflection on the hidden architectures that guide life at its earliest stages.