Run blockchain gaming infrastructure on dedicated servers for blockchain games, separating sessions, APIs, RPC nodes, and indexing workloads to reduce contention and keep launches and recovery predictable.
Keep sessions and matchmaking on isolated hardware so RPC, indexing, and telemetry workloads avoid contention.
Match CPU and memory to simulation, session density, and API demand with headroom for peak gameplay events.
Plan storage and I/O for game state, chain data, logs, and indexing with capacity reserved for rebuild operations.
Place regions around players, endpoints, and operations to balance latency, recovery planning, and failure domains.
Blockchain game hosting combines real-time player sessions with asynchronous chain and data workloads that compete for CPU, memory, storage, and network capacity. Without explicit workload boundaries, RPC calls, indexing, telemetry, and synchronization consume resources needed by authoritative gameplay during launches, peak events, and recovery operations.
At Melbicom, we provide isolated dedicated servers so teams can separate gameplay services from RPC endpoints, blockchain clients, indexers, and analytics pipelines. Each workload can be sized by CPU, memory, storage, and region, with both metered and unmetered bandwidth options available to match traffic patterns and reduce contention during peak events.
Teams keep latency-sensitive gameplay off-chain while customer-managed workers submit or reconcile blockchain events asynchronously. Roles consolidate when resource behavior and recovery needs align, but separate when contention risks delay sessions or expand failure impact. This model supports controlled launches, rebuilds, and consistent gameplay under changing player demand.
Run real-time simulation and matchmaking on isolated hardware so player actions stay responsive during peak concurrency.
Place blockchain clients and RPC endpoints on separate machines to prevent indexing and query traffic from affecting gameplay.
Process chain data and events on dedicated nodes sized for throughput so ETL pipelines avoid contention with sessions.
Serve inventories and marketplace APIs on isolated infrastructure tuned for demand so bursts do not disrupt gameplay services.
Run telemetry on isolated capacity so metrics, logs, and traces stay available without competing with gameplay services.
Reserve dedicated capacity for resync and reindex jobs so recovery workloads do not interfere with active gameplay sessions.
Deploy workloads across regions based on players and endpoints to balance latency, recovery planning, and failure boundaries.
Prepare baseline and peak capacity across gameplay and blockchain components to prevent contention during traffic spikes.
