The growing emphasis on sustainable development has underscored the importance of replacing petroleum-based resources with bio-based alternatives and integrating covalent adaptable networks (CANs) as recyclable adhesives. However, combining a green synthesis process with rapid recycling capabilities remains a significant challenge. In this work, commercially available organosolv lignin (OL) was acrylated and subsequently cured with pentaerythritol triacrylate (PTA) and poly (propylene glycol) bis (2-aminopropyl ether) 400 (PEA D400) through a click reaction, specifically Aza-Michael addition, to fabricate CANs featuring dual dynamic bonds (hydroxyl-ester and β-amino ester). The thermodynamic and mechanical properties of the networks were tuned by varying the acrylated lignin-to-PTA ratio. These materials demonstrated adhesive properties on various substrates with shear strengths above 1.5 MPa on wood, aluminum, polycarbonate, and more. The incorporation of dual dynamic bonds facilitated rapid stress relaxation within 3 min at 160 °C. Leveraging these dynamic features, both uncured and cured resins could be swiftly re-bonded with a 10-minute hot pressing post-failure. Additionally, adhesive layers could be peeled and rebonded within 5 min at elevated temperatures, achieving adhesion strengths up to 2.1 times that of the original samples. Furthermore, the photothermal properties of lignin enabled light-controlled healing, highlighting its potential for on-demand adhesive applications. This work presents an eco-friendly and sustainable strategy for the challenges of adhesive recovery.