Modesto is the seat of Stanislaus County and the center of one of California’s largest food and beverage manufacturing clusters, alongside a publicly owned utility serving both power and water across the region. Wine, dairy, canning, and packaged-food operations run at industrial scale here, and most of them run at more than one location. That is why so much connectivity work in this market is multi-site work: the interesting traffic is not going to the internet, it is going between buildings the same organization owns.
Point-to-point transport is the product for that traffic. A dedicated Ethernet path between two sites, carrying only your data, with latency set by the route rather than by whatever the internet is doing that afternoon. It does not replace internet access and is not sold as a substitute for it. It exists because tunnelling operational traffic across shared infrastructure stops being adequate at a point most organizations can identify precisely, usually after the third incident nobody could explain.
Utilities need connectivity between substations, control centers, and field assets that is engineered for isolation and resilience rather than for peak throughput. The requirement is unusual in that bandwidth is often modest while the tolerance for variability is close to zero, and the traffic frequently should not traverse shared infrastructure at all for reasons that are as much about exposure as performance. Point-to-point circuits and dedicated wavelengths are the usual answers, because they let the operator keep control traffic on a path whose behaviour is a property of the route rather than of conditions elsewhere.
A production operation in Stanislaus County typically runs a plant, a warehouse or cold storage facility, and an office, and the network between them carries process control, quality systems, food-safety monitoring, and the reporting that regulators expect to be complete. A connectivity failure during a production run has a direct product cost, which changes the calculus — the relevant question is not what the connection costs but what an incomplete batch record costs. Isolating that traffic on a private path also makes the security position simpler to describe, because there is less to describe.
For a small number of high-value site pairs, a private path is usually both simpler and better than solving the same problem in software. MPLS is a private WAN service that scales to many sites with a provider-managed core; SD-WAN is an overlay that steers traffic intelligently across whatever circuits exist. Neither removes traffic from the public internet the way a dedicated circuit between two buildings does. Where an estate is large, an overlay earns its license; where two or three sites exchange the traffic that matters, point-to-point answers the question directly and there is less to go wrong.
Both ends and the route between them each need checking. Distance from existing fiber, the route itself, land ownership, permitting, and building entry set the cost and the timeline together, and two facilities that look equally reachable can produce very different answers. Availability depends on the specific service address, network proximity, construction requirements, and the service requested, and for a two-ended circuit that review covers both. Where a genuinely diverse second path is part of the requirement, that is a separate question again — and worth asking explicitly, because two routes that share a conduit or a bridge crossing are not diverse where it counts.
Full service detail lives on the Point-to-Point Fiber & Ethernet Transport page, and the wider market context is on the Modesto location page.
A VPN inherits the behaviour of the internet connections underneath it: latency varies with routing, jitter varies with congestion at either end, and the encryption load sits on hardware that was often sized for something else. That is acceptable for modest traffic and unreliable for control systems, replication, or voice. A dedicated path removes the variability instead of working around it.
Usually very little, which is what makes the requirement counter-intuitive. What control and telemetry traffic needs is consistency and isolation, not capacity. Sizing a circuit purely on megabits misses the point; the specification that matters is that the path behaves the same at every hour and carries nobody else’s traffic.
Yes, though the design question changes. Two sites is a circuit. Several sites is a topology, and the honest answer depends on which pairs actually exchange traffic — a hub arrangement, a set of direct paths, or a mix. It is worth mapping the real flows before deciding, because the assumed pattern and the measured one frequently differ.
Yes. Point-to-point connects your locations to each other and to nothing else. The usual design pairs it with dedicated internet access at the sites that need it, so operational traffic stays private while general traffic has a proper path of its own.
Weeks where both buildings are already reachable from existing fiber, since it is largely provisioning. Months where either end requires construction, with permitting rather than the fiber work usually setting the date. Because the survey covers both addresses and the route between them, the timeline follows whichever end is harder.
Send us the address and a bandwidth target. A California-based engineer confirms what can be delivered there, what it involves, and how long it takes.
Send the Modesto address and what the connection needs to carry. An engineer confirms whether it can be served, what the build involves, and how long it takes.
Service availability depends on location, network proximity, capacity, and engineering review. Share an address and we will confirm what can be delivered there.