Automated guideway infrastructure

A connected guideway network that moves automated transit, cargo, and even privately owned autonomous vehicles across one shared system.

Autonomous vehicles are the future, but they still get stuck in traffic. Solving that requires dedicated right-of-way, which in most urban areas means grade separation. A fixed guideway is significantly smaller in footprint and cost than adding conventional lanes. The only missing pieces are the vehicle and the system itself.

Goldlane is developing the criteria to create a connected guideway network that moves automated transit, cargo, and even privately owned autonomous vehicles across one shared system.

The first installation is not an isolated segment but the beginning of a large integrated network, and whoever builds it essentially holds a monopoly. That makes a nonprofit far better suited to the role than a profit-driven enterprise requiring investor dividends. It also lets Goldlane set a single standard that vehicle manufacturers build to, so every system isn't a custom vehicle. The intent is that any agency, or even a developer, can add new Goldlane sections as easily as adding roadway lanes.

01 — Payload

What moves on it

One guideway, indifferent to what rides on it. The same infrastructure carries three kinds of traffic, each routed individually and each type with its own station.

01·1

Transit

Small automated vehicles carry up to 12 passengers point to point, bypassing stops that aren't theirs. No timetable to catch — a vehicle is sized to the trip, not the peak. Each vehicle has level boarding and is wheelchair accessible.

01·2

Cargo

The same guideway moves freight in standardized containers, routed directly from origin to destination alongside passenger traffic, credential-controlled and driverless. Multiple sizes of enclosed vehicles for air cargo containers or open beds for empty or lightweight shipping containers.

01·3

Your own vehicle

A privately owned autonomous vehicle can enter the guideway and travel it directly — the reach of a personal car with the flow of a dedicated network. Any compatible car from any manufacturer.

Goldlane guideway concept Image slot — square — guideway concept
AVEX drive-on station Image slot — 16:9 — AVEX station
02 — Rationale

Why a guideway

Dedicated right-of-way

Automation removes the driver, but it doesn't remove the traffic. Congestion is a right-of-way problem, and the only durable fix is separating this traffic from everything else. In built-up areas that means going up — an elevated, grade-separated path that never waits at an intersection.

Smaller footprint, lower cost

A fixed guideway carries far more within a narrow structure than a conventional lane needs in width and land. It is significantly smaller in footprint — and in cost — than widening roads, and it can follow corridors where new lanes could never fit.

No moving parts

The guideway has nothing to actuate and nothing to fail — junctions are completely fixed, with no switches or moving track. A vehicle chooses its own path, carrying the only moving part of the steering mechanism on board. Fewer failure points, less maintenance, and every junction stays passive.

Guideway versus conventional lane footprint comparison Image slot — 16:9 — footprint comparison
03 — Organization

Why a nonprofit, and why a standard

A network is a natural monopoly

Because the first line is the seed of an integrated network, whoever builds it effectively holds a monopoly over regional movement. A monopoly answerable to investor dividends is the wrong custodian for public infrastructure. A nonprofit, aligned permanently with the people it serves, is the right one.

One standard, many builders

Setting a single open standard means vehicle manufacturers build to one specification instead of a custom vehicle for every system — the way one road standard is built out by many hands. Goldlane stewards the standard; agencies and developers extend the network.

04 — Operation

How it works, briefly

Every vehicle plans and drives itself along a fixed path. There is real engineering underneath — enough to make arrival times something you can count on.

Self-directed

No central controller

Each vehicle carries the network map and coordinates with its neighbors. There is no single computer whose failure stops the network.

Conflict-free

Junctions resolve themselves

Vehicles pace their own speed to pass through each junction based on virtual signal timing, so paths never conflict — coordination without negotiation.

Predictable

Arrival to the second

Because the path and timing are known in advance, the system can tell you your arrival time up front, with only a small, bounded allowance for traffic.

05 — Reach

Where it goes

Built once as a standard, extended anywhere as demand grows.

The first network proves the architecture. From there, growth is incremental — a new section is added the way a new road is added, by whoever needs it and can build to the standard. Nothing about the system is one-off.

Scales in both directions The same system can move people and goods within a single city, or connect one city to the next.
06 — Read more

Go deeper

Two companion papers cover the specifics — one for the public and policy case, one for the engineering.