The Philippines frequently faces devastating disasters that result in extensive property damage and prolonged displacement of communities. In such scenarios, the provision of resilient and disaster-resistant shelters is critical to facilitate effective recovery. Post-disaster shelters are designed with varying degrees of permanence, ranging from temporary emergency shelters to more permanent core shelters. However, a significant challenge arises regarding the fate of these shelters once displaced families return to their homes. Inefficient disassembly of these shelters often hampers the recovery and reuse of materials, which in turn significantly impacts the budgets allocated for future shelter deployments. Design for Deconstruction (DfD) presents a viable solution by advocating for designs that enable the efficient recovery and reuse of materials, thus reducing the dependency on new raw materials. Despite its clear benefits, the implementation of DfD principles in post-disaster recovery efforts within the Philippines remains limited. This study seeks to explore the potential of integrating DfD into the design of post-disaster shelters, specifically focusing on a cold-formed steel shelter with screw piles. This design is guided by the principles of Design for Manufacturing and Assembly (DfMA), which further enhance the efficiency and feasibility of construction and deconstruction processes. The research aligns with the government's Post-Disaster Shelter Recovery Policy Framework, aiming to improve the resilience and recovery outcomes for disaster-affected households and communities. By investigating the practical application of DfD and DfMA in post-disaster contexts, this study endeavors to contribute to more sustainable and cost-effective shelter solutions. The findings aim to provide actionable insights that can inform policy and practice, ultimately leading to enhanced preparedness and response capabilities in the face of future disasters.