This is a workforce story with winners and losers inside the same industry, and a plan that only describes the winners is not a plan.
Two things that are both true
The World Economic Forum's Future of Jobs Report 2025 ranks autonomous and electric vehicle specialists seventh among the fastest-growing jobs worldwide to 2030, the highest-placed green transition role. Demand for that specific capability is real and strong.
The same report finds 42 percent of automotive and aerospace employers name difficulty attracting talent as a barrier to transformation, against 37 percent elsewhere. The sector says it struggles to attract people.
And alongside both, an electric powertrain contains substantially fewer moving parts than an internal combustion one, which changes what is manufactured and what is maintained.
The transition is not simply additive. Some capability is in demand, some is in decline, and the people affected are frequently in the same buildings.
Three honest consequences.
Engine and transmission manufacturing employment changes shape. Fewer components, different processes, different plants. Some of this is absorbed by battery and electric drive production, and the locations and skills do not map one to one.
Servicing changes. Electric vehicles need less routine mechanical maintenance, which affects aftermarket employment over time.
New demand is real and differently located. Battery production, power electronics, software and charging infrastructure all grow.
Saying only the growth half would be the kind of vendor optimism this whole section is written against.
What the direction covers
The scope: vehicle systems and powertrains, EVs, batteries, vehicle electronics and manufacturing.
Four areas.
Vehicle systems. Chassis, suspension, braking, thermal management and the integration that makes a vehicle rather than a collection of parts.
Electric powertrain. Motors, inverters, transmissions, and the control that makes them efficient and drivable.
Battery systems. Pack design, thermal management, battery management systems and safety, which connects to energy materials in the materials domain.
Vehicle electronics and software. Architecture, networks, over-the-air update and the increasing share of vehicle function defined in software.
What actually changes in the vehicle
Specific rather than general, because the differences determine the retraining content.
Thermal management becomes central. Batteries have a narrow temperature range for performance and life, motors and inverters need cooling, and the cabin needs heating without waste engine heat. Thermal systems in an electric vehicle are more complex than in a conventional one, not less, and this surprises people.
Power electronics is a core discipline. Inverters, converters and chargers determine efficiency and range. This is an electrical engineering specialism that automotive did not previously need at scale, and it connects directly to the semiconductor domain's wide bandgap devices.
Software defines more of the product. Vehicle behaviour, energy management, features and updates. Which brings the certified-versus-commercial software tension that the avionics article describes, in a different regulatory frame.
Weight and packaging change. A heavy battery low in the structure alters mass distribution, crash structure design and suspension.
NVH changes character. Removing engine noise exposes other noises that were previously masked, which is a real engineering problem and a nice illustration that removing something creates work.
High voltage is a genuine competence boundary
The clearest safety and workforce issue in this direction.
Traction systems operate at voltages that are lethal. Working on them requires specific training, defined procedures for isolation and verification, appropriate equipment and, in most jurisdictions, formal competence recognition.
Three practical points.
The competence requirement is legal. It is not a recommendation, and organisations carry duties around who they permit to work on these systems.
The requirement extends well beyond dealer technicians. Recovery and roadside assistance staff, bodyshop workers, emergency responders, vehicle dismantlers and battery recyclers all interact with high-voltage systems or damaged batteries.
Damaged batteries are a distinct hazard. Thermal runaway risk after collision or damage requires specific handling, quarantine and storage practices, and this affects insurers, salvage operations and workshops.
Where this sits in the domain
Automotive engineering and electric vehicles is the seventh of nine directions in Astra Trainer's space, aerospace and new mobility domain, sitting next to future mobility and transportation systems and connecting to autonomous vehicles in the robotics domain.
It depends on advanced materials for energy materials and battery chemistry, on semiconductors and electronics for power electronics, and on energy, climate and nuclear for charging infrastructure and grid interaction. Partners in automotive retraining programmes usually scope across at least two of those, because the powertrain change is an electrical and materials story as much as a vehicle one. You can see the nine directions here.
The aftermarket problem
The part of the transition that receives the least policy and training attention relative to the number of people affected.
Vehicle manufacturers train their own dealer networks. The independent repair sector, which services most vehicles in most markets once they age out of dealer coverage, is far more fragmented.
Four consequences.
Small independent workshops face a capability cliff. High-voltage competence, diagnostic equipment and technical information all cost money, and a small business serving an ageing conventional fleet has weak incentives to invest early and a hard problem when it becomes urgent.
Access to technical information matters. Independent repairers need diagnostic data and repair procedures, and the terms on which they get them shape whether the sector can adapt.
Used electric vehicles need a service sector. As the first large cohorts age out of warranty, the independent sector becomes the main provider, and its readiness determines cost of ownership for second and third owners.
Battery health assessment is an unmet need. Valuing a used electric vehicle depends on battery state, and independent capability to assess that is thin.
For a government or industry body planning workforce intervention, this is the highest-leverage and least-served group.
The roles, named
Electric powertrain engineers. Motors, inverters and integration.
Power electronics engineers. Persistently short across several sectors simultaneously.
Battery systems engineers. Pack, thermal and battery management.
Battery manufacturing engineers and technicians. The volume-hiring end, covered in the energy materials article.
Vehicle thermal engineers. More in demand than before, not less.
Vehicle software and electrical architecture engineers.
High-voltage qualified technicians. Dealer and independent, and the widest gap.
Charging infrastructure engineers, which sits between vehicles and the grid.
Who can be trained into it
Engine and transmission engineers. The group most directly affected, and they hold vehicle integration, validation and manufacturing knowledge that remains valuable. The conversion is real and it is the one that matters most socially.
Vehicle technicians. Into high-voltage qualification, which is a defined route and the most immediately useful intervention available.
Electrical engineers from industrial or energy backgrounds. Into power electronics and charging, where their existing high-voltage discipline transfers.
Electronics technicians. Into battery management and vehicle electronics.
Manufacturing staff from engine plants. Into battery and drive unit production, where process discipline transfers even though the process differs.
Emergency responders, recovery operators and dismantlers. Into high-voltage and damaged-battery awareness, which is a safety requirement rather than a career move and is frequently overlooked entirely.
High-voltage work requires formal competence. Working on electric vehicle traction systems is subject to electrical safety law and requires defined training, isolation and verification procedures, appropriate personal protective equipment and recognised competence. Damaged or thermally compromised batteries present fire and toxic gas hazards requiring specific handling, quarantine and storage. Training builds understanding and supports recognised qualification routes. It does not confer high-voltage competence authorisation, and unqualified work on these systems can be fatal.
What to take from this
Electric and autonomous vehicle specialists rank seventh among the fastest-growing jobs worldwide, and the same transition reduces demand elsewhere in the same industry. Both belong in the plan.
Thermal management and power electronics become more demanding rather than less, which is the opposite of the intuition that fewer parts means simpler.
High voltage is a legal competence boundary extending to recovery, bodyshops, emergency responders, dismantlers and recyclers, not only dealer technicians.
The independent repair sector is the least-served and highest-leverage group, and used vehicle running costs depend on whether it adapts.
And engine and transmission engineers are the conversion that matters most, because they hold integration and validation knowledge that does not go away.
Does the EV transition create or destroy jobs?
Both, in the same industry. Electric and autonomous vehicle specialists rank seventh among the fastest-growing jobs worldwide, while an electric powertrain has far fewer parts, which changes engine and transmission manufacturing and reduces routine servicing over time.
What becomes harder in an electric vehicle?
Thermal management, because batteries have a narrow operating window and there is no waste engine heat for the cabin. Power electronics also becomes a core discipline that automotive did not previously need at scale.
Who needs high-voltage training?
Far more people than dealer technicians: independent workshops, recovery and roadside staff, bodyshops, emergency responders, dismantlers and battery recyclers. It is a legal competence requirement, not a preference.
Why does the independent repair sector matter?
Because it services most vehicles once they age out of dealer coverage. Its readiness determines running costs for second and third owners, and battery health assessment capability is currently thin.
Who converts into EV roles?
Engine and transmission engineers, who hold integration and validation knowledge; vehicle technicians into high-voltage qualification; and electrical engineers from industrial or energy backgrounds into power electronics.