Glassnode Latency Monitor — Real-Time Crypto Trading Infrastructure Latency

Live network latency from probes worldwide to crypto trading infrastructure and blockchains (Solana, SUI, Hyperliquid, Arbitrum One). Built for traders, HFT firms, market makers, and arbitrage operators choosing where to co-locate.

What we measure

Why infrastructure location matters

For trading firms racing to be first into a price move, physical distance to exchange matching engines and blockchain validators dominates total latency. A server in the wrong city can lose by tens to hundreds of milliseconds — enough to lose every arbitrage and MEV opportunity to better-located competitors. This site publishes the actual measured numbers, continuously, so operators can make data-driven hosting decisions instead of guessing.

Probe infrastructure

Probes deployed worldwide across Asia (Tokyo multi-AZ, Seoul, Hong Kong, Singapore), Europe (Amsterdam, Dublin, London, Frankfurt), the Americas (Ashburn, Ohio, Chicago, San Jose, São Paulo), and Oceania/Africa (Sydney, Johannesburg). Probes run on Fly.io and AWS bare-metal instances.

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About Arbitrum Latency

Real-time latency monitoring for the Arbitrum One sequencer.

What is Arbitrum Latency?

Arbitrum Latency continuously measures the round-trip time from probes around the world to the Arbitrum One sequencer — the single machine that orders every transaction on the chain. There is no other way onto Arbitrum: whether a transaction arrives through a public RPC provider or is submitted directly, it must reach this sequencer to be included.

The sequencer runs in AWS us-east-2 (Ohio). The map shows how far each region is from it in network terms, and where co-location pays.

Why It Matters: Timeboost

Arbitrum orders transactions first-come-first-served, with one twist: Timeboost auctions off an express lane every minute. The auction winner's transactions are sequenced ahead of everyone else's, while non-express transactions absorb a small artificial delay.

The express lane raises the price of speed — it doesn't replace it. The controller still races its own reaction time to market events, and everyone else still queues first-come-first-served behind the delay. In both cases, the distance between your servers and the sequencer is the floor on how fast you can act. That floor is what this map measures.

Methodology

Targetarb1-sequencer.arbitrum.io/rpc
MeasurementEach probe submits a fixed signed transaction via eth_sendRawTransaction.
MetricTime to first byte of the sequencer's response over a warm connection — network round trip plus a few milliseconds of validation. p50 over 60-second windows.
ConnectionEach probe pins the fastest sequencer gateway IP for consistency and re-checks DNS every five minutes, so a sequencer infrastructure move shows up as an annotated step-change rather than noise.

Research Project Disclaimer

Arbitrum Latency is a research project provided for informational and educational purposes only. The latency metrics displayed are measured from specific geographic probe locations using our distinct server environments. Actual latency may differ. Real-world network performance depends on numerous factors including ISP routing, local network congestion, and hardware. These numbers should be viewed as estimates and directional baselines.