Operations Manager

The Operations Manager at the operations console reading the live fleet map, with the four jobs of the view around it: what is running and what is at risk, whether the fleet is being used well, driver safety and compliance, and the state of every EV charger.

The Operations Manager view exists to catch fleet problems before they ever reach a guest. Breakdowns, delays, and idle vehicles rarely announce themselves; left unwatched, they surface later as complaints, missed transfers, and rising cost. This view is built to give early sight of the fleet, so each of those problems can be acted on while it is still small.

It watches four things at once: what is running and what is at risk, whether the fleet is being used well, driver safety and compliance, and the state of every EV charger. The aim across all four is the same, to move from finding out something is wrong too late to always knowing what is running, what is under strain, and what needs attention before it turns into a cost or a service problem.

The wide view of the destination. The bottom strip is the operations read: fleet and maintenance, utilization, driver safety, and EV charging.

What you see

At the wide view, the bottom strip is the operations read for the whole destination, grouped into fleet availability, utilization and efficiency, driver safety, and EV infrastructure. A map legend in the corner counts the open items by severity and confirms the operational sensor feed is live.

The map legend reads the open items by severity: 0 critical, 1 high, 2 medium, and 8 low or info, fed by the operational sensor feed running live.

Reading the fleet across the destination

The read works at two levels. At the wide view the strip covers the whole destination. Drop into a hub, here Turtle Bay, and the same read rescopes to that hub, which is what shows whether a problem is local to one hub or shared across the whole fleet.

Zoomed to the Turtle Bay hub. The strip rescopes to that hub, carrying the same grouped read as the destination: repair and return 4.2 hours, fuel and battery 72%, hub idle 22%, inspection compliance 96.6%, and total energy charged 63%, with the asset pins placed across the hub.

The close-up: four things to stay ahead of

At the closest level the view drills into a site, here Turtle Bay, and brings the four areas together in one panel before raising a recommended action for each. Each card frames the same shift, from reacting after the fact to acting on an early signal.

The Operations Manager close-up at Turtle Bay, with the consolidated site panel on the left and camera and charger pins across the campus.

Fleet availability

What is running, at risk, and out of service is legible early, so capacity can be rebalanced before it bites.

Close-up of Turtle Bay, fleet availability. The card suggests pooling reception trips to fill buggies, because 18 of 24 buggies are running at only 2 of 6 seats, so pooling frees about 6 vehicles.

Utilization and efficiency

Overworked and idle assets show up early, so a vehicle sitting empty in one place can be moved to where demand is building.

Close-up of Turtle Bay, utilization. The card suggests moving an idle pod to where demand is, because it is sitting empty while 4 single-rider sedans queue and 5 assets are under-used.

Safety and compliance

Driver behaviour and compliance gaps show up before they escalate, so a marshal can be sent while the situation is still recoverable.

Close-up of Turtle Bay, safety. The card suggests sending a safety marshal to the causeway queue, because a buggy is over capacity at 7 of 6 and helmet and tailgating flags are rising on the bridge.

EV charging

A live map of what is working, what is not, and how much energy is left lets vehicles be routed to the chargers that can actually serve them.

Close-up of Turtle Bay, EV charging. The card suggests routing 2 EVs to the Turtle Bay charger after drop-off, because both are under 65% and the charger is 84% free.

The building model

At this level the site also opens into its building model. The roofs lift off and the interior is read floor by floor on the L1 and L2 selector. The tracked cameras stay pinned in place, and layers over the floor plate show where people are gathering, the temperature each zone is holding, and the airflow being delivered to it.

The Intelligence Operation Centre buildings opened with the roofs removed, camera pins placed across the floor plates, and the L1 and L2 selector on the right.

A floor with the human occupancy heatmap on. Warm zones mark where people are gathering across the floor plate, with the figures at their desks beneath.

The same floor plate with the temperature layer on. Each zone is tagged with the air temperature it is holding, reading 22.3 C across the plate.

Temperature and airflow read together. Each tag pairs the zone temperature, 22.3 C, with the airflow being delivered to it, 927 CFM.

Evacuation and bottleneck severity

The building model also runs a live fire-evacuation simulation. A Pathfinder run plays the alarm forward through the occupied floors, reading clearance time against the safe limit, the egress rate and which routes are carrying it, and the bottlenecks forming across the plates. The left panel holds the run: percent evacuated, estimated clearance against the ASET margin, the egress routes with their per-minute throughput, and the bottlenecks building with their waiting counts.

Bottlenecks surface as cards, and they carry a severity tier so an operator triages worst-first rather than reading every point equally. The three tiers use the same act-now grammar as the recommended-action cards: a state badge, the location, the density against its threshold, the projected impact, and a single recommendation. Read in order of what to take care of first.

Alert. Egress has stalled at a chokepoint and the queue is backing up behind it, the point where a delay becomes a crush. This is the tier to clear first, because flow at the node is already near zero and every second adds to the upstream pressure.

The most urgent tier: egress has stalled at a single doorway and the queue is backing up behind it, the point where a delay turns into a crush.

Critical. A hard limit is close but not yet breached, here a stairwell approaching its descent capacity as two floors' flow merge into it. Flow is still moving, so the window is to relieve the merge before it stalls into an Alert.

A stairwell approaching its descent limit as two floors' flow merges, the squeeze to relieve before it stalls.

Warning. The earliest signal, density climbing in a space while flow still moves freely. There is the most headroom here, so it is caught and watched rather than acted on immediately, before it trends toward Critical.

The earliest signal: density climbing in a corridor while flow still moves, caught with room to act.

Virtual tour (preview)

The site is also navigable as a CCTV virtual tour, a set of fixed ground-level viewpoints you can move between, with info popups on the assets you pass. This is in preview. The frames below are samples.

Ground level at the site, the arrival view onto the operations campus, with a buggy at the entrance canopy and the live map legend in the corner.

A charger at the Central Transport Hub, an EV connected at the bay beside the parking, before the status card is opened.

The same charger selected. The status card reads RCTH-AC022-127 at the Central Transport Hub, Shura, connected, a Type 2 connector at 22 kW with a single connector. It logs 38 sessions in March, 247 kWh delivered, an average session of 19 minutes and 4.2 kWh, a last session of 12 Mar 08:24, and a last charge from 35% to 70%, reported over OCPP 1.6.

Simulations this view runs

The Operations Manager runs the simulations that read the site as a system under load: how crowds and clearances stack against capacity, how the fleet and microgrid hold up, and where a hazard forces a response. The simulation object is Humans and Vehicles. Each read is summarised below and documented in full in the Simulation chapters.

People

Crowd. Make sure the gates and the people working them keep up, so a busy period never becomes a backed-up entrance. The twin plays footfall forward against gate capacity and staffing, showing which entrances tip first and how much resourcing the peak demands, so staff are positioned and lanes opened ahead of the surge. Read in full

Crowd, Operations read.

Evacuation. A clearance that comes in inside the margin the site is meant to hold, with visibility of where flow stalls. The twin plays the clearance forward across the structure, reporting where flow concentrates and naming the binding constraint, so the team acts on the specific exit that drives the number. Read in full

Evacuation, Operations read.

Traffic

Mobility. Meet the day's demand with the assets on hand, keeping enough vehicles and charging that the system never runs out of slack at the peak. The twin plays the load forward against the fleet and charging network, naming the binding constraint before the peak, so the shortfall is solved on paper. Read in full

Mobility, Operations read.

Energy. Keep the island on its own clean supply, never drifting to where diesel backup is called. The twin plays demand and supply forward against the renewable balance, showing when the clean share drifts toward the backup trigger and how much reserve sits behind it, so dispatch and reserve are shaped before the gap compounds. Read in full

Energy, Operations read.

Shuttle network. Fleet health, keeping utilization balanced so no leg carries more than it was sized for. The twin plays the network forward from the asset's side, showing the routes running hot and the capacity stretched, so service is added or rebalanced before a leg saturates. Read in full

Shuttle network, Operations read.

Drop-off forecourt. Throughput, clearing vehicles fast enough through kerb, bays, and staff that the approach never backs up. The twin plays the arrival pattern forward against forecourt capacity, surfacing where staging falls behind, so staff are positioned and the kerb managed ahead of the rush. Read in full

Drop-off forecourt, Operations read.

Transport

Safety conflicts. Know which crossings flare up under load and warrant staffing or control, and which can be left alone. The twin surfaces the conflict locations and grades them, so attention goes where the risk concentrates rather than across every junction. Read in full

Safety conflicts, Operations read.

Flood and storm surge. Protect critical facilities and assets, where the whole game is lead time. The twin plays a storm, tide, and rainfall scenario forward, showing how far the surge reaches, how deep it gets at the facilities that matter, and how evacuation timing stacks up, so the response is staged before the water is at the door. Read in full

Flood and storm surge, Operations read.

Working in this view

1. Open the Operations Manager from the persona bar.
2. Read the destination operations strip at the wide view.
3. Select a hub to rescope the fleet, utilization, safety, and EV figures.
4. Open a site to read its recommended action and dispatch a response.
5. Open the site close-up for the consolidated panel, the building model, and the CCTV virtual tour preview.