Private Base RPC Endpoints on a Dedicated Node

A dedicated Base RPC node runs on single-tenant bare-metal hardware reserved for you: CPU, RAM, NVMe storage, and network port are yours alone. Shared RPC endpoints split capacity across many users, so when demand spikes they throttle requests or add latency. A dedicated setup avoids that and lets you control the full stack, from the Base execution client to the L1 Ethereum RPC connection.

Base is an OP Stack L2 rollup. You need an execution client (op-geth or the recommended op-reth) and a rollup node (op-node). The execution client handles state, transaction processing, and RPC queries; the rollup node derives L2 blocks from Ethereum L1 data. You also need a reliable Ethereum L1 RPC endpoint. With full root access you install, configure, and update these on your own schedule.

It depends on full vs archive. A full node runs well on 8 to 12 high-clock cores, 32 to 64 GB RAM, and NVMe sized using Base's formula: (2× chain size) + snapshot + 20% buffer. Archive nodes need 16+ cores and 64 to 128 GB RAM. NVMe matters more than raw capacity: it keeps sync steady and reduces query lag under load.

On NVMe with a strong CPU and RAM, a Base full node can sync in roughly 24 to 72 hours depending on chain growth, and archive takes longer. Using snapshots speeds this up significantly by skipping the full replay, op-reth in particular provisions much faster than op-geth. We provision the server quickly; plan launch windows around the chain-side sync.

Open P2P ports 30303 and 9222 for peer discovery and sync. Keep RPC ports 8545 (HTTP), 8546 (WebSocket), and 8551 (Engine API) private until allowlists and rate limits are configured. Exposing RPC ports publicly without protection invites abuse, so put a reverse proxy with authentication or IP filtering in front before any external access.

Yes. Base is an L2 rollup that derives its blocks from Ethereum L1 data, so the op-node component reads from an Ethereum L1 RPC endpoint to verify batch submissions and reconstruct the L2 chain. You can use your own Ethereum node or a reliable third-party L1 RPC. The quality of your L1 source directly affects whether your Base node stays in sync.

A full node keeps the current state and recent history and serves most RPC queries: balances, contract reads, receipts, and recent logs. An archive node retains full historical state at every block height, which is needed for eth_call at older blocks, historical balance lookups, and deep event-log scans. Archive needs significantly more storage and RAM, so choose full for standard production and archive when you need historical state.

No. Unlike shared RPC providers that bill per "compute unit" and throttle you past a quota, a dedicated node is a flat monthly price with unlimited requests and zero overages. One node equals all the throughput your hardware can serve. That makes budgeting predictable and removes the surprise bills that come with usage-based RPC pricing.

Shared RPC pools serve thousands of customers from pooled infrastructure, so you inherit rate limits, noisy-neighbor latency, and compute-unit billing. A RedSwitches node runs on single-tenant bare metal that is yours alone: reserved CPU, RAM, and NVMe, a dedicated 10/25 Gbps port, and a private endpoint you control. Performance tracks your hardware, not another tenant's traffic.

No. We provision from current snapshots so your node is live in hours rather than syncing from genesis for days. You can run it yourself with full root access, or choose our fully managed option where our engineers handle the sync, updates, and monitoring. Either way you receive a working private endpoint, not an empty server.

Yes. With 20+ Tier III locations across the US, EU, Asia, and Australia you can place your node in the same region as your users or a chain's sequencer to cut round-trip latency. Tell us your target region and we will recommend the closest facility. You can also run multi-region nodes for redundancy and split read and write endpoints.