Plants have evolved intricate systems to recycle intracellular components essential for
their metabolic processes and developmental changes, enabling efficient nutrient reuse and
proper disposal of protein complexes, and malfunctioning organelles. One significant pathway in
this process is autophagy, which employs specific vesicles to capture and transport cytoplasmic
material to the vacuole for degradation[2]. Research highlights that selective autophagy plays a
crucial role in maintaining homeostasis by recycling cellular components. In the early and
intermediate developmental stages of maize (Zea mays) endosperm, autophagy influences seed
maturation and nutrient storage, an area that warrants further exploration. A study utilizing
quantitative real-time PCR identified autophagy-related gene (ATG) members in the pepper
genome, analyzing their expression in response to heat and other abiotic factors. The results
revealed 15 core ATG components, comprising 29 ATG proteins with conserved functional
domains. Under normal conditions, the expression of CaATG genes exhibited specific patterns
related to tissue type and developmental stage. Given the benefits of ATG genes, such as
enhanced growth, increased yields, and improved stress tolerance, boosting their expression
could offer significant agricultural advantages. Challenges of this study are Gene Families and
Genetic redundancy, regulation specific to tissues and development, limited tools and markers.
This review explores the potential of manipulating autophagy to enhance crop production under
various environmental challenges[5].