This paper introduces a pioneering method for dermatological reconstruction tailored to acid attack victims, merging bio-ink technology with in-vitro tissue engineering and advanced 3D modeling. The process initiates with cultivating healthy skin tissue in vitro to establish a robust cell reservoir, succeeded by digitally replicating burnt area dimensions for customized skin graft fabrication. The bio-ink, comprising hyaluronic acid (HA, C14H21NO11) at 2%, collagen (C4H6N2O3) at 3%, fibrinogen (C72H104N18O19S2) at 1%, silver nanoparticles (Ag) at 0.1%, and Transforming Growth Factor-Beta (TGF-β) at 0.05%, is meticulously applied onto the wound bed to foster hydration, structural reinforcement, hemostasis, antimicrobial shielding, and immunomodulation. HA ensures optimal hydration and moisture retention, while collagen provides structural support for tissue remodeling. Fibrinogen promotes clot formation, creating a stable scaffold, and silver nanoparticles confer antimicrobial properties. TGF-β regulates inflammation and promotes tissue regeneration. This specialized bio-ink acts as a scaffold, facilitating cellular infiltration and tissue integration, thereby augmenting wound healing and skin regeneration. Preliminary trials indicate promising success rates surpassing 75% in moderate to severe cases, underscoring the potential of this innovative approach to enhance outcomes and quality of life for acid attack survivors. Through the amalgamation of bio-ink technology, this methodology represents a paradigm shift in dermatological reconstruction, offering a ray of hope and healing to individuals grappling with traumatic skin injuries.