Bonded Internet for Maritime & Mining Operations

Why Single-Link Solutions Fail in the Field

Starlink has genuinely transformed remote connectivity. A single Starlink terminal on a vessel or at a mining camp delivers 50–200 Mbps download with latency around 20–40ms under clear sky — performance that would have been unimaginable five years ago. But a single link is still a single point of failure, and it has predictable limitations in demanding environments:

• Weather outages: Heavy precipitation, snow accumulation on the dish, or severe storms can degrade or drop a Starlink connection. In Alaska and Oregon coastal operations, this isn't a rare edge case — it's a regular occurrence.
• Obstruction sensitivity: Starlink's phased array requires a clear view of the sky across a wide arc. On vessels with masts, cranes, or rigging, and at mine sites hemmed in by canyon walls or large equipment, obstructions cause intermittent dropouts that wreck VoIP calls and VPN sessions.
• Congestion windows: In certain geographic cells — particularly in busy coastal zones or near populated areas — Starlink performance degrades during peak hours. A single terminal offers no recourse when the cell is congested.
• LTE limitations: Cellular coverage in remote Alaska, rural Oregon, and offshore is inconsistent. Where LTE exists, it often tops out at 10–30 Mbps and is shared across a cell tower serving a large geographic area. Reliable alone? No. Valuable as a bonding partner? Absolutely.

What Bonding Actually Does

Bonded internet — also called link aggregation or WAN bonding — combines two or more physical internet connections into a single logical pipe, managed by a bonding router and a VPS-hosted concentrator. Traffic is distributed across all active links simultaneously, and if one link degrades or fails, traffic shifts automatically to the remaining links.

The underlying technology we use is MPTCP (Multipath TCP), which operates at the transport layer and allows a single TCP session to transmit data across multiple paths concurrently. Unlike simple failover (where a backup link only activates after the primary fails), MPTCP bonding uses all links all the time. A file download, a VoIP call, a video conference — all benefit from the combined bandwidth and the redundancy of multiple paths.

The practical result: a vessel bonding two Starlink terminals and an LTE modem achieves 300–500 Mbps aggregate throughput with automatic failover that's invisible to users. A dropped Starlink connection during a squall means the call keeps running — the other links absorb the traffic in milliseconds.

Typical Deployment Architectures

Maritime Vessels

For fishing vessels, tender boats, research ships, and coastal work boats, a common bonding configuration combines:

• One or two Starlink Maritime or standard Starlink terminals (waterproof, rated for marine environments)
• One or two LTE/5G cellular modems with external omnidirectional marine antennas — useful near port and along coastal shipping lanes
• An OpenMPTCProuter-based bonding router onboard, connecting to a VPS concentrator hosted in a data center (we run these on Linode/Akamai in Seattle, close to Alaska and Pacific Northwest operations)

The onboard router presents a single LAN to the vessel's network — crew Wi-Fi, IP cameras, VSAT backup systems, and operations terminals all connect normally. The bonding is transparent to every device onboard.

Vessel antenna placement matters significantly. Starlink dishes should be mounted as high as practical, away from rigging and mast shadows. On working vessels with busy decks, this often means fabricating custom mounting brackets — something Richesin Engineering handles as part of the installation.

Remote Mining & Drill Sites

Mining operations present a different set of challenges: fixed location but often in terrain that limits satellite sky view, significant power infrastructure, and demanding use cases including machine telemetry, HD video surveillance, VoIP for safety communications, and corporate VPN for operational data.

A typical mine site or drill camp bonding configuration:

• Two Starlink terminals on independent mounting structures, physically separated to reduce the chance that a single obstruction or snow accumulation event affects both simultaneously
• LTE with a high-gain directional antenna pointed at the nearest cell tower — even at 15–20 Mbps, it provides meaningful failover capacity and fills gaps when Starlink congests
• VSAT (traditional geostationary satellite) as a last-resort backup — high latency makes it poor for primary use, but it provides coverage in locations where LEO satellite geometry is unfavorable
• The bonding router at the site, VPS concentrator in the cloud, managed through a web dashboard with per-link statistics and alerting

Power is rarely a constraint at established mine sites, but at temporary drill camps, the bonding router and modems need to run on generator or battery power with appropriate surge protection. We spec this out as part of site assessment.

Bandwidth Allocation and QoS

Raw bandwidth is only part of the story. In maritime and mining environments, different traffic types have very different tolerance for latency and packet loss:

• Safety and VoIP communications must be prioritized absolutely — these need low latency and should never be dropped in favor of background traffic.
• Machine telemetry and SCADA is typically low-bandwidth but high-priority — small packets, regular intervals, cannot be delayed.
• Video surveillance is bandwidth-intensive but tolerant of buffering — stream it over the highest-throughput links and let it yield to VoIP.
• Crew internet (streaming, social media) should be rate-limited during operational hours and allowed to expand during off-shift periods.

A properly configured bonding router applies QoS rules that enforce these priorities automatically. VoIP packets jump the queue regardless of what else is happening on the network. Crew streaming gets what's left after operational traffic is served.

Monitoring and Remote Management

Remote sites can't have an IT technician on-site for every issue. The bonding VPS concentrator provides a management interface showing real-time per-link throughput, latency, and packet loss. When a link degrades, the system logs it and can send alerts via email or SMS.

For clients with multiple vessels or sites, we integrate with LibreNMS for centralized network monitoring — one dashboard showing the health of every bonded link across the fleet or operation. When a Starlink terminal at a remote camp starts showing elevated packet loss, we know before the site manager does and can often diagnose and resolve the issue remotely before it impacts operations.

Is Bonded Internet Right for Your Operation?

If your operation depends on internet connectivity and operates where a single link is unreliable — whether that's a vessel in Alaskan waters, a mine in remote Oregon, or a construction camp in Hawaii — bonded internet is worth serious consideration. The hardware and VPS hosting costs are modest compared to the operational cost of a downed link during critical work periods.

The right configuration depends on your location, the available link types, your bandwidth requirements, and your operational priorities. Richesin Engineering does site assessments for maritime and mining connectivity — we'll tell you what's realistic given your geography and what it will cost to build it right.