SAGMOTO i9 Electric Cash-in-Transit Trucks: Secure Urban Logistics Applications

Why an electric chassis suits cash-in-transit work

Cash-in-transit, CIT, is an urban and suburban duty cycle of short loops, frequent stops and tight time windows, and that is exactly the profile where a battery-electric truck beats diesel. The SAGMOTO new energy electric trucks range includes the i9 medium electric, a 131 kWh LFP battery vehicle with a 250 to 320 km real-world range and DC fast-charge capability, and it is a strong base for an armored CIT body. CIT routes are predictable, they return to a secure depot every shift, and they rarely exceed the i9 range in a day, which removes the two objections fleets raise about electric trucks: range anxiety and charging access. The depot owns the charger, so the fuel supply is on-site and never dependent on public infrastructure.

The case for the i9 in CIT is not only economic. A silent, low-vibration electric platform improves crew comfort over a long shift of stop-go driving, reduces the thermal and acoustic signature that draws attention to a cash vehicle, and gives the operator precise, instant torque control in urban traffic where a CIT truck must hold position in queue and pull away cleanly. This guide covers the armored upfit on the EV chassis, the silent-operation advantage, range planning for banking loops, regenerative braking in city work, security telematics, charging depot design and the total cost of ownership against diesel CIT vehicles.

Armored body upfit on the EV chassis

Armoring a truck means adding mass exactly where it hurts dynamics most: low and central for the cabin and cash vault, and around the perimeter for the body panels. The i9 chassis must be specified with the gross vehicle weight rating to carry the armored module, because ballistic steel and the reinforced glass add 1,200 to 2,500 kg over a standard box depending on the protection level. The i9 medium platform supports this when the battery and axle ratings are matched to the upfit, and the body builder works from the chassis drawings rather than bolting a prefabricated cell onto a standard frame. The low floor of the EV skateboard actually helps here, because the heavy battery sits low and central, lowering the combined centre of gravity and offsetting some of the armor weight high in the vault.

The upfit priorities are a hardened cab and crew cell, a separate locked cash vault with its own access logic, run-flat tyres, a protected fuel-free powertrain bay, and a perimeter that resists intrusion without compromising the doors the crew must use. Because the i9 has no diesel tank or exhaust to protect and no engine heat to manage at the front, the armor layout is simpler than on a diesel base, and there is no hot exhaust system to shield from a crew compartment. The body control and the security system share the 24-volt architecture, and the upfit integrates the door interlocks and the vault alarm into the vehicle controller rather than as a separate add-on.

Silent operation benefits for CIT routes

The most overlooked CIT advantage of the i9 is silence. A diesel CIT truck idles loudly at every stop, broadcasts its presence a block away, and fills the cab with vibration that fatigues the crew over an eight-hour shift. The i9 pulls away and stops with near-zero noise, which lets the crew work the route without drawing the attention that a loud diesel engine attracts at a bank branch or ATM site. In residential and night routes this matters doubly, because a quiet vehicle is less likely to be noticed casing a location, and the crew can communicate without raising voices over engine noise.

Silence also supports the security posture. A CIT operator who can hear the surroundings hears a threat earlier, and a vehicle that does not advertise itself by sound is harder to track on a predictable loop. The low acoustic and thermal signature is a genuine operational security feature, not a comfort extra, and it is one the i9 delivers by design rather than by added equipment. For fleets running evening and overnight cash runs in dense city centres, the silent electric platform is a measurable security improvement.

Range planning for banking routes

CIT range planning is easier than general delivery because the loops are fixed. A typical metropolitan CIT shift covers 120 to 220 km of stop-go urban driving with the vault loaded for the first half and light for the return, plus long idling periods at branch locations. The i9 131 kWh pack at a real-world urban consumption of roughly 0.55 to 0.75 kWh per km returns 250 to 320 km, which covers a full shift with margin even after the armor weight is counted. The planning rule is to model the worst-case loop, add the idle draw from the security and HVAC loads, and size the pack so the truck returns to depot at 15 to 25 percent state of charge.

Winter range is the only planning caveat. Cab heating and the security electronics draw from the same pack, and cold weather reduces LFP capacity by 10 to 20 percent, so GCC and temperate fleets see the upper end of the range while northern fleets plan to the lower end and pre-condition the cab while on charge. Because the i9 returns to a depot every shift, the answer is a depot top-up on the lower-range days rather than a larger pack, which keeps the vehicle weight and cost down. The table below sets an indicative planning model for a single i9 CIT unit.

Regenerative braking in stop-go city work

CIT is the ideal regenerative-braking duty. A diesel CIT truck wastes the kinetic energy of every stop as heat in the brakes; the i9 recovers a large part of it back into the pack. On a dense urban loop with a stop every 300 to 800 metres, regeneration can return 15 to 25 percent of the energy used, which extends the effective range and, critically, cuts brake wear. Brake wear matters for CIT because a worn brake is a roadside risk and a maintenance cost, and less braking means fewer pad and disc changes across the fleet.

The i9 regen is tuned for smooth, predictable deceleration so the crew is not thrown forward on each stop, and the level can be set for urban work where frequent stops favour strong regen. Because the vault and armor add mass, the regen must be balanced against stability, and the chassis control blends regen with the friction brakes so the stopping distance stays within the security specification. The net effect is a CIT truck that goes further on a charge and needs brakes less often, which is a double win on the urban loop.

Security telematics on the i9 platform

A CIT truck is a data node as much as a vehicle, and the i9 controller makes telematics integration clean. The security layer tracks position, door and vault access events, driver ID, speed, geofence breaches and the state of the security system, and it reports to the control room in real time over the truck's cellular link. Because the i9 is already a networked vehicle with a battery management system reporting state of charge, temperature and fault codes, the security telematics ride on the same data bus and the control room sees vehicle health and security status in one pane.

The telematics also support route proof and incident review. Every vault opening is time-stamped and geo-tagged, every deviation from the planned loop raises an alert, and the battery and drivetrain data confirm the truck was serviceable at the time of an event. For a CIT operator under audit from clients and regulators, that integrated evidence trail is a compliance asset, and it is simpler on the i9 than bolting a tracker onto a diesel base with no native data bus.

Charging depot design for security fleets

A CIT electric fleet charges at its own secure depot, and the depot design is a security and operations decision, not just an electrical one. The principles are a fenced charge court inside the perimeter, chargers on a dedicated supply with load management so the site peak stays within the connection, and a charge schedule that tops the fleet between shifts and during the mid-day lull. DC fast charge at 20 to 80 percent in around an hour means a truck that runs long can be turned around on a fast post if a loop overruns, while the normal pattern is overnight or between-shift AC or moderate DC top-ups.

Load management matters because a fleet of i9 units plugged in at once can exceed the supply. A managed charger bank charges the vehicles in a staggered sequence to stay under the agreed demand, and the depots that skip this either pay for a larger supply than needed or trip the main. The depot should also have a fire and isolation plan suited to LFP chemistry, which is already low-risk and stable, but the secure site treats the charge court as a controlled zone. The SAGMOTO new energy electric trucks programme supports the charger specification and the load-management setup as part of the fleet handover.

TCO versus diesel CIT vehicles

The total cost of ownership is where the i9 wins for most metropolitan CIT fleets. The electric vehicle costs more to buy but costs far less to fuel and service, because electricity per kilometre is a fraction of diesel and the powertrain has no engine oil, no exhaust aftertreatment, fewer brake changes from regen, and roughly a tenth of the moving parts. Over a five-year, high-utilisation urban cycle the lower energy and maintenance cost typically overtakes the higher acquisition price inside two to three years, and the gap widens as diesel prices rise and city low-emission zones add charges that the zero-emission i9 avoids.

The table below compares an indicative i9 electric CIT unit against a comparable diesel CIT base over five years at 40,000 km per year urban duty. Figures are indicative and shift with local electricity, diesel and labour rates.

The crossover is sensitive to diesel price and to how strictly the city prices emissions, but the direction is consistent: for fixed urban loops that return to a depot, the i9 electric CIT truck costs less to run across five years and avoids the regulatory risk that diesel CIT fleets increasingly face in dense city centres. The acquisition gap is real and should be planned, but it is recovered in the operating account rather than lost.

Conclusion

The i9 electric platform is a strong fit for cash-in-transit because CIT is a fixed-loop, return-to-depot, stop-go urban duty that plays to every strength of a battery-electric truck. The 131 kWh LFP pack covers a full shift with margin, the silent low-vibration running is a genuine security and crew-comfort advantage, regeneration recovers energy and saves brakes on the dense loop, and the native data bus makes security telematics and vehicle health one integrated picture. With the armored body matched to the GVW rating, a secure load-managed depot charger, and a five-year TCO that beats diesel on most metropolitan loops, the i9 deserves a serious place in any CIT fleet planning its next replacement cycle.

For security fleet operators, the practical step is to model one fixed loop against the planning table above, confirm the armored mass against the i9 GVW rating, and design the depot charge court before the vehicles arrive. Done in that order, the i9 electric CIT truck delivers lower cost and lower profile than the diesel it replaces.