At its core, the disaster recovery (DR) strategy for the FTM GAMES platform is a multi-layered, geographically distributed framework designed to ensure service continuity and data integrity with a target Recovery Time Objective (RTO) of under 15 minutes and a Recovery Point Objective (RPO) of near-zero for critical user data. This isn’t just a single plan but an integrated set of protocols addressing everything from a single server failure to a full-scale regional outage, built upon the principles of redundancy, rapid detection, and automated failover.
Infrastructure Redundancy: The Backbone of Resilience
The platform’s resilience starts with its infrastructure. Instead of relying on a single data center, FTM GAMES leverages a multi-cloud and multi-region architecture. The primary workload is hosted on a combination of AWS (us-east-1 and us-west-2) and Google Cloud Platform (europe-west-1), with a real-time data replication system syncing information across these zones. This means if an entire AWS US-East region were to experience a catastrophic failure, traffic can be automatically rerouted to the operational nodes in US-West or Europe with minimal disruption. The key components are duplicated as follows:
| Component | Redundancy Strategy | Data Sync Frequency |
|---|---|---|
| User Database (PostgreSQL) | Active-Active clustering across 3 zones | Synchronous replication (real-time) |
| Game State & Session Data (Redis) | Multi-region replication with failover | Asynchronous (< 500ms latency) |
| Static Assets (Images, Code) | Global CDN (Cloudflare) | Pushed to 200+ edge locations |
| Blockchain Node Connections (Fantom) | Load-balanced connections to multiple RPC endpoints | Constant health checks |
For instance, the user database uses a synchronous replication model. When a user updates their profile or makes an in-game purchase, the transaction isn’t considered complete until it’s written to the primary database and at least one secondary instance in a different geographic zone. This ensures that during a failover, no committed data is lost, achieving that near-zero RPO.
Data Protection and Backup Strategies
Beyond real-time replication, FTM GAMES implements a rigorous, multi-tiered backup strategy. The philosophy is that replication protects against infrastructure failure, but backups are the last line of defense against logical errors, such as a bug in a game update that corrupts player inventories or a malicious attack.
Automated Snapshotting: Every 6 hours, automated snapshots are taken of all critical databases. These are incremental backups, meaning only the data changed since the last snapshot is stored, which is both cost-effective and faster to create. These snapshots are immediately transferred to a separate, immutable storage system—meaning the backups themselves cannot be altered or deleted for a 30-day period, protecting them from ransomware or accidental deletion.
Full Weekly Archives: A full, verified backup is performed weekly and stored in a completely separate cloud provider’s cold storage (e.g., Azure Archive Storage) for long-term retention. This process includes integrity checks to ensure the backup files are not corrupted. The recovery process from these archives is tested quarterly to validate the procedure and the actual RTO.
| Backup Type | Frequency | Retention Period | Storage Location | Estimated Recovery Time |
|---|---|---|---|---|
| Database Snapshots | Every 6 hours | 30 days (immutable) | Cross-region cloud storage | 10-15 minutes |
| Full System Image | Weekly | 1 year | Alternate cloud cold storage | 1-2 hours |
| Configuration & Code | On every deployment | Permanent (in Git history) | Private Git repositories | Minutes (automated deployment) |
Incident Response and Communication Protocols
A disaster recovery plan is only as good as the team executing it. FTM GAMES maintains a 24/7 Site Reliability Engineering (SRE) team with clearly defined roles and responsibilities. The moment an automated monitoring system (like Datadog or Prometheus) detects a system failure that exceeds predefined thresholds—such as a 50% error rate on API calls or a complete zone failure—it triggers a PagerDuty alert that immediately pages the on-call engineer.
The response is guided by a runbook, a detailed set of instructions for specific failure scenarios. For a database failure, the runbook might instruct the engineer to first verify the automated failover has occurred, check the health of the new primary database, and then initiate a root cause analysis. Crucially, the platform’s status page is updated automatically to reflect a “major outage” or “partial degradation,” and the communications team is empowered to post updates on Twitter and Discord within 5 minutes of the incident being declared, providing transparency to the user base.
Communication Timeline Example:
- T+0 mins: Alert triggered. On-call engineer paged.
- T+2 mins: Engineer acknowledges alert and begins diagnostics using the runbook.
- T+5 mins: Status page updated. Initial social media post: “We are investigating an issue causing login errors.”
- T+10 mins: Failover process initiated/verified.
- T+15 mins: Service restored for majority of users. Follow-up communication: “Service is recovering after a database failover. We are monitoring stability.”
Blockchain-Specific Contingencies
Given that FTM GAMES is integrated with the Fantom blockchain for NFTs and transactions, its DR plan includes unique contingencies for blockchain-related issues. The platform does not custody user assets—those remain in the user’s wallet—but it must maintain reliable connections to the blockchain to read game asset ownership and broadcast transactions.
To mitigate the risk of a single node provider outage, the platform uses a load balancer that distributes requests across multiple node providers, including Ankr, Chainstack, and a set of self-hosted nodes. If the primary provider’s latency spikes or availability drops, traffic is automatically rerouted. In the extreme event of a network-wide halt or a consensus failure on the Fantom network, the platform’s DR plan includes a “maintenance mode” that can be activated. This mode would temporarily disable blockchain-dependent features like NFT minting or marketplace trades while allowing users to access core game mechanics, thus maintaining a degree of service availability even during a chain-specific disaster.
Regular Testing and Continuous Improvement
The effectiveness of these plans is not assumed; it is rigorously tested. Quarterly, the SRE team conducts a “GameDay” exercise where they intentionally inject failures into the production-like staging environment. These are not just simple server reboots. Past tests have included simulating the complete loss of an AWS availability zone, corrupting a database table to test backup restoration, and even conducting a full regional failover. The results of these tests are documented, and the DR plans and runbooks are updated based on the findings. This practice of continuous refinement ensures that the platform’s recovery capabilities evolve alongside the platform itself, adapting to new features and increased scale.