Operational Changes and Fleet Management in the EV Era (Continued)
vehicle or a plug-in hybrid. Indeed, a government study found fleets that have adopted electric vans tend to do so for only part of their fleet , specifically, the parts of the business with shorter, consistent trips, whereas more variable or longer routes were left for diesel vehicles until EV technology improves [61][62] . By the late 2020s, this will likely change: EV ranges are steadily increasing and rapid charging networks expanding. We expect that by 2035, nearly every use case up to 7.5-tonne trucks will have a market-viable EV option available. In the meantime, fleet managers should continue to monitor vehicle technology developments (for instance, longer-range battery options, or the emergence of hydrogen fuel-cell trucks for very long-range needs) and plan phased transitions , perhaps aiming to electrify 100% of cars and small vans by 2030, while having a separate strategy (and possibly later timeline) for heavier or more demanding vehicles. Another strategy for alleviating range concerns is to incorporate opportunity charging into operations. If an EV can’t quite complete a full day’s work on a single charge, scheduling a mid-shift charging stop (during a lunch break or between jobs) can extend its effective range. Many fleets instruct drivers to “top-up whenever convenient” rather than running the battery nearly empty. For example, if a worker takes a 30-minute break near a public fast charger, that time can be used to add 50+ miles of range. This requires some planning (ensuring there is a charger in the vicinity and that the schedule allows for the stop), but it can significantly boost daily utilization. Telematics data can help identify when and where vehicles are idle and might charge. Some fleets are also exploring en-route charging for specific applications,
much like some electric bus systems use ultra-fast chargers at endpoints to quickly re-energize. While not widespread for vans yet, this concept could translate in the future to, say, having a high-power charger at a logistics hub where vans make regular stops. The bottom line is that range constraints are manageable with smart planning: optimize routes, allow for charging breaks if needed, and communicate clearly with service schedulers or dispatchers about the new parameters (e.g. avoiding booking an EV on a job that is beyond its range unless a charging solution is in place). Scheduling and Downtime Management: Because charging takes longer than refueling, fleets must integrate charging into their daily schedules to avoid lost productivity. This is a cultural shift, instead of drivers “running on empty” and then spending 5 minutes at a fuel pump, EV drivers need to develop a habit of plugging in whenever they reasonably can. Fleets like Centrica (British Gas) have openly stated they prioritize minimizing vehicle downtime over minimizing electricity cost : they would rather a van charge at a more expensive public charger during the day than sit unusable waiting for a cheaper charge later. Some emerging tactics include rotating vehicles so that one can charge while a spare is used, staggering shifts or start times so not every vehicle needs a full charge at 7am, and equipping managers with remote state-of-charge monitoring to dispatch the right vehicle for each job. For instance, if a fleet management system shows that Van A has 80% charge and Van B only 30%, and a 50-mile job comes in, the dispatcher can assign Van A to ensure the task is completed without interruption. In larger fleets, software can automate much of this, scheduling
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Electrifying UK Fleet Operations: Challenges, Strategies, and the 2035 Deadline
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