The reality inside the industry is different. The remaining part of the transition from lead-acid to lithium-ion is proving to be the slower part. Heavier counterbalance trucks and outdoor applications still rely widely on combustion. Lead-acid remains the installed base across large parts of the market, and the shift to lithium-ion proceeds at the pace of fleet replacement cycles, which are measured in years rather than quarters. Early adoption, it turns out, says little about how quickly the last stages are completed.
This gradual pace is worth taking seriously, because it shapes what the coming years will look like. The industry is not standing at the end of its electrification journey but somewhere in the middle, and the decisions made now, by fleet operators and by OEMs, will determine how well the remaining distance is covered. In an industry that relies on efficiency of operations to stay competitive electric MHE utilizing lithium has become a proven advantage to give companies a competitive edge.
What is becoming clear is that the next part of the journey is not primarily about the driveline. It is about the energy system as a whole: how energy is stored, charged, monitored, and managed across a fleet.
This shift aligns with what Micropower has observed across material handling applications globally. As lithium-ion batteries, charging infrastructure, fleet management software, and power electronics become increasingly interconnected, customers are evaluating complete energy ecosystems rather than individual products.
Why is the battery no longer just a component?
Because in modern operations, energy availability increasingly limits productivity more than vehicle capability does. Three developments lie behind this.
Operations have intensified. Higher throughput, multi-shift work and growing automation mean vehicles are expected to run more hours with less downtime. A capable truck that is unavailable at the wrong moment is of limited value to the operation.
Integrating charging infrastructure has become a vital component of modern facility design and layout. Opportunity charging, fast charging and automated charging for AGVs and AMRs each influence how a site runs: where vehicles pause, how breaks are planned, how much floor space charging requires, and how the electrical infrastructure is loaded.
Demand charges add another layer of complexity to how the cost of charging is calculated. Most industrial electricity bills contain two components: a charge for the energy consumed, measured in kilowatt-hours, and a demand charge based on the highest rate of power drawn at any point during the billing period, measured in kilowatts. This means the cost of charging a fleet is not simply the sum of the energy that flows into the batteries. A facility that fast-charges several trucks simultaneously during a shift change can set a demand peak in a matter of minutes that shapes its electricity bill for the entire month, even if total consumption is modest. For fleet operators, the schedule of charging can therefore matter as much as the amount of charging, and an energy system that spreads or staggers the load directly lowers the cost per charged kilowatt-hour.
In the United States, demand charges make the timing of charging a direct cost. In Europe, limited grid capacity at new sites can restrict fleet growth. In both markets, how a truck charges has become part of its value.
Energy has also become something operators must account for. Electricity costs are under pressure, and the largest operators face emissions reporting requirements, driven by the CSRD in Europe and by customer and investor expectations in the United States. They want to measure energy use per vehicle, per shift and per fleet. The energy system is expected to provide data as well as power.
The same reasoning applies to the choice between developing in-house and working with a partner. Battery systems, charging technology, power electronics and energy software are specialist fields with their own development cycles, safety requirements and regulatory obligations. Few vehicle OEMs can cover all of them alone, and there is little reason to try. The question is gradually shifting from which battery to buy toward which energy partner to design with, where engineering collaboration, data capability and long-term commitment weigh as heavily as unit price.
For OEM product teams, the conclusion is a patient one. Treat energy architecture as a central design decision, take it early, and take it together with partners who think about system integration.
This gradual pace is worth taking seriously, because it shapes what the coming years will look like. The industry is not standing at the end of its electrification journey but somewhere in the middle, and the decisions made now, by fleet operators and by OEMs, will determine how well the remaining distance is covered. In an industry that relies on efficiency of operations to stay competitive electric MHE utilizing lithium has become a proven advantage to give companies a competitive edge.
What is becoming clear is that the next part of the journey is not primarily about the driveline. It is about the energy system as a whole: how energy is stored, charged, monitored, and managed across a fleet.
This shift aligns with what Micropower has observed across material handling applications globally. As lithium-ion batteries, charging infrastructure, fleet management software, and power electronics become increasingly interconnected, customers are evaluating complete energy ecosystems rather than individual products.
Why is the battery no longer just a component?
Because in modern operations, energy availability increasingly limits productivity more than vehicle capability does. Three developments lie behind this.
Operations have intensified. Higher throughput, multi-shift work and growing automation mean vehicles are expected to run more hours with less downtime. A capable truck that is unavailable at the wrong moment is of limited value to the operation.
Integrating charging infrastructure has become a vital component of modern facility design and layout. Opportunity charging, fast charging and automated charging for AGVs and AMRs each influence how a site runs: where vehicles pause, how breaks are planned, how much floor space charging requires, and how the electrical infrastructure is loaded.
Demand charges add another layer of complexity to how the cost of charging is calculated. Most industrial electricity bills contain two components: a charge for the energy consumed, measured in kilowatt-hours, and a demand charge based on the highest rate of power drawn at any point during the billing period, measured in kilowatts. This means the cost of charging a fleet is not simply the sum of the energy that flows into the batteries. A facility that fast-charges several trucks simultaneously during a shift change can set a demand peak in a matter of minutes that shapes its electricity bill for the entire month, even if total consumption is modest. For fleet operators, the schedule of charging can therefore matter as much as the amount of charging, and an energy system that spreads or staggers the load directly lowers the cost per charged kilowatt-hour.
In the United States, demand charges make the timing of charging a direct cost. In Europe, limited grid capacity at new sites can restrict fleet growth. In both markets, how a truck charges has become part of its value.
Energy has also become something operators must account for. Electricity costs are under pressure, and the largest operators face emissions reporting requirements, driven by the CSRD in Europe and by customer and investor expectations in the United States. They want to measure energy use per vehicle, per shift and per fleet. The energy system is expected to provide data as well as power.
What does this mean for material handling and forklift OEMs?
It suggests that energy architecture should be treated as a platform decision, made early in the design process, rather than a component specification made late. When battery, charging strategy and monitoring are engineered together and matched to real duty cycles, the vehicle behaves predictably, uses energy efficiently, and gives end customers the availability and insight they increasingly expect. When these elements are specified separately, the gaps tend to appear later, in the field, as variability and support cost.The same reasoning applies to the choice between developing in-house and working with a partner. Battery systems, charging technology, power electronics and energy software are specialist fields with their own development cycles, safety requirements and regulatory obligations. Few vehicle OEMs can cover all of them alone, and there is little reason to try. The question is gradually shifting from which battery to buy toward which energy partner to design with, where engineering collaboration, data capability and long-term commitment weigh as heavily as unit price.
How does regulation influence the transition?
Regulation is turning good engineering practice into a formal requirement. The EU Battery Regulation introduces carbon footprint declarations, a digital battery passport and professional serviceability for industrial batteries above 2 kWh, on a timeline running through 2027. The requirements apply to any OEM placing products on the EU market, regardless of where they are manufactured, which is why American OEMs with European customers follow the regulation as closely as European ones. Energy system decisions made in today's platform designs will carry these obligations well into the 2030s.What will characterize the companies that manage the transition well?
Most likely, the ability to integrate. Industrial transitions tend to follow a familiar pattern: the early years reward those who adopt new technology, while the later years reward those who integrate it well. Because material handling is electrifying gradually, there is still time to get the integration right. The vehicles that succeed over the next decade will not be distinguished by being electric. They will be distinguished by energy systems that make their owners' operations more productive, more efficient, and easier to run.For OEM product teams, the conclusion is a patient one. Treat energy architecture as a central design decision, take it early, and take it together with partners who think about system integration.
