Self-Grafting Series: A Breakthrough in Autonomous Plant Propagation The concept of self-grafting represents a revolutionary approach in plant science, enabling plants to autonomously repair, regenerate, or propagate without human intervention. This innovative technique mimics natural grafting processes but enhances them through advanced biological or technological means, creating a "self-grafting series" of plants capable of self-sustaining growth and adaptation. Self-grafting leverages the innate ability of certain plants to fuse tissues when brought into contact, a phenomenon observed in traditional grafting. However, the self-grafting series takes this further by engineering plants with heightened responsiveness to environmental cues or genetic triggers. For example, plants may be designed to initiate grafting when detecting damage, drought, or nutrient deficiencies, seamlessly connecting their vascular systems to share resources. This could dramatically improve survival rates in harsh conditions, reducing reliance on manual grafting or external support. One key application is in agriculture, where self-grafting crops could form interconnected root networks, distributing water and nutrients efficiently across entire fields. This would enhance resilience against climate stressors like erratic rainfall or soil degradation. Similarly, fruit trees could self-graft to rejuvenate older branches, prolonging productivity without pruning. Beyond agriculture, self-grafting has ecological implications. Forests with self-grafting trees might recover faster from wildfires or storms, as surviving specimens could "heal" damaged neighbors by sharing nutrients. Urban greenery could also benefit, with self-repairing plants reducing maintenance costs in parks or vertical gardens. The technology behind self-grafting may involve CRISPR gene editing to enhance natural grafting traits or smart materials that stimulate tissue fusion. Ethical and ecological considerations must be addressed, such as preventing uncontrolled spread in wild ecosystems. In summary, the self-grafting series represents a paradigm shift in botany, merging nature’s ingenuity with human innovation. By enabling plants to self-sustain and adapt, it holds promise for sustainable agriculture, ecosystem restoration, and resilient urban landscapes—ushering in a future where plants actively participate in their own survival and growth.