Failures in a large distributed storage system are often critical, leading to unexpected I/Os that are required to restore the system's health and ensure availability. With the advent of NVMe-oF, the disaggregation of compute and storage resources presents an opportunity to minimize the negative impact of the compute failure by reattaching the storage resources. However, despite advances in hardware, modern distributed storage systems have not yet fully adapted to the disaggregated architecture. There are four main reasons: (1) lack of awareness of recoverable failure events in the disaggregated architecture, (2) incorrect availability management with respect to the NVMe-oF fault domains, (3) unnecessary data rebalance I/Os for uniform distribution triggered even after the failure is recovered, (4) load imbalance caused by asymmetric deployment of compute resources after blind relocation for recovery. To address these challenges, we introduceNVMe-oF-R, a resilient disaggregated distributed storage architecture for fast recovery.NVMe-oF-Rcomprises three techniques: (1)NVMe-oF adapter, which detects recoverable failure events and orchestrates relocation; (2)DCRUSH, a data placement strategy that considers the NVMe-oF based disaggregation architecture; and (3)Relocater, which efficiently relocates failed compute resources and fixes stragglers that arise after recovery. We implementNVMe-oF-Ratop the storage orchestration layer in a CRUSH-based distributed storage system, Ceph. Our experimental results demonstrate thatNVMe-oF-Rcan eliminate unnecessary recovery traffic and reduce recovery time by more than 50%.