Key takeaways
- Map your current skills landscape: Score each engineer across the four core battery competency axes to reveal gaps.
- Prioritise gaps by business impact: Rank identified gaps by how directly they block project milestones.
- Define role-based training requirements: Match each function to the depth and breadth of battery knowledge it needs.
- Select the right training format: Choose between cohort programmes, bespoke workshops, or self-paced content based on outcomes.
- Build a team development timeline: Enrol cross-functional groups together through BatteryMBA to create shared vocabulary.
- Establish accountability and support structures: Assign mentors and schedule regular check-ins throughout the programme.
- Measure outcomes and iterate: Re-score the skills matrix at 90 days and track cross-functional cycle time.
Your engineering team excels at electrochemistry, but cross-functional collaboration keeps stalling at the pack-to-BMS interface. Or your systems engineers can spec a thermal solution in their sleep, yet draw blanks when procurement asks about supply chain risk for NMC cathodes. These gaps are common, and they're costing you speed.
The good news: closing battery skill gaps does not require sending your entire team back to university. BatteryMBA helps engineering leaders build targeted upskilling plans that give every function the right depth of knowledge. This guide walks you through the process step by step.
By the end, you'll have a repeatable framework to diagnose where your team is underperforming, match training formats to actual needs, and measure whether your investment paid off.
How to Identify and Close Battery Technology Skill Gaps for Engineering Teams
1. Map your current skills landscape
Start with a simple skills matrix. Score each engineer from 0 to 3 across four competency axes that span the battery value chain:
- Cell chemistry: LFP, NMC, sodium-ion, solid-state roadmaps, degradation mechanisms
- Pack, BMS and thermal: Integration constraints, safety requirements, second-life considerations
- Manufacturing and quality: Gigafactory economics, yield metrics, supplier qualification
- Applications and commercial context: EV, BESS, industrial use cases; cost per kWh; policy (IRA, EU Battery Regulation)
Anyone scoring below 2 on an axis their role depends on represents a gap worth addressing. Aggregate the data by team to spot patterns: if your entire systems function is red on cell chemistry, that's your starting point.
2. Prioritise gaps by business impact
Not every gap deserves the same urgency. A pack engineering team that cannot interpret cell degradation curves will struggle to spec warranty terms. A commercial team unfamiliar with supply chain dynamics will miss margin risks in procurement negotiations.
Rank your gaps by asking one question: which missing skill is most directly blocking a current project milestone? Start there. You can address secondary gaps in the next cycle.
This prioritisation also helps you justify budget. When you can link training spend to a delayed product launch or a supply-chain risk event, approval moves faster.
3. Define role-based training requirements
A one-size-fits-all programme rarely works. Your cell and materials engineers need electrochemistry depth. Your systems engineers need pack integration and thermal management detail. Your procurement and strategy teams need commercial context and cost modelling.
Here's a typical pattern for a 20-person battery team:
- Whole team: Shared baseline across the full value chain so every function speaks the same language
- Cell and materials engineers: Layer a chemistry deep dive on top of the baseline
- Systems, BMS and thermal engineers: Add pack-integration workshops
- Product, procurement and strategy: Supplement with cost-per-kWh and sourcing-strategy sessions
- Engineering leadership: Value-chain context plus executive sessions on policy and capital allocation
BatteryMBA's career guides can help you map specific roles to learning outcomes.
4. Select the right training format
Four main formats exist, each suited to different objectives:
Cohort-based online programmes: These work when you need cross-functional alignment and cannot pull engineers away from their day jobs. Live lectures, peer discussion, and CPD-accredited certification at the end. This is what BatteryMBA delivers.
Bespoke corporate training: Useful for narrow, company-specific topics such as your proprietary chemistry or your specific manufacturing line. Short, intensive, and only worthwhile once your team has shared vocabulary to absorb the content.
Self-paced video and MOOCs: Good for pre-reading and refreshers. Completion rates below 10% are typical, so do not rely on these for core skill building.
Conferences: Valuable for networking and keeping your radar current. Not a training solution.
For most engineering teams, a cohort programme forms the foundation. Layer bespoke sessions on top for specialised needs.
5. Build a team development timeline
Plan for a 12-week cohort as the core, plus 4 to 8 weeks of role-specific follow-up. Anything shorter cannot cover the value chain adequately. Anything longer competes too heavily with project work and completion rates collapse.
Enrol cross-functional groups together. When your cell engineer, systems lead, and procurement manager complete the same programme simultaneously, they build shared vocabulary that accelerates every subsequent design review and supplier negotiation.
BatteryMBA's corporate training option offers team pricing for groups of five or more, with deeper discounts at higher volumes. A dedicated customer success manager helps coordinate enrolment and track progress.
6. Establish accountability and support structures
Enrolment alone does not guarantee learning. Build in accountability from day one:
- Assign internal champions: Identify one or two senior engineers who completed training previously (or will complete it first) to mentor colleagues
- Schedule manager check-ins: A brief weekly sync where participants share one thing they learned helps reinforce material
- Create application opportunities: Give engineers real problems to solve using new knowledge within two weeks of each module
The BatteryMBA programme includes interactive office hours across multiple time zones, so your team can ask questions directly to industry practitioners from OEMs, cell makers, and research institutes.
7. Measure outcomes and iterate
Two metrics tell you whether your upskilling programme worked:
Cross-functional cycle time: How many days from a cell spec change to an updated pack requirement? If this number dropped after training, your team is collaborating more effectively.
Skills matrix re-score: Re-run the 0-to-3 assessment at 90 days post-completion. If average scores improved on the axes you targeted, the training landed.
If neither metric moved, diagnose the cause. The format may have been wrong (self-paced video rarely drives behaviour change). The wrong people may have been enrolled. Or the application opportunities may have been missing.
Why do engineering leaders find battery upskilling difficult?
Battery technology sits at the intersection of electrochemistry, mechanical engineering, systems integration, software, manufacturing, policy, and finance. Very few engineers received formal training across all these domains. The field's technical roadmap also shifts every 12 to 18 months as new cell chemistries and form factors reach commercial viability.
This creates teams that are highly competent in narrow silos but slow at the interfaces: pack to cell, BMS to thermal, engineering to procurement. A good development plan does not try to make every engineer an expert in everything. It gives everyone a shared value-chain baseline, then builds depth by role.
The Battery Talent Census from the Volta Foundation confirms this challenge: employers across the battery industry report persistent gaps in skilled labour and training. The fastest-growing companies are the ones investing deliberately in their existing teams.
What skills should battery engineers develop first?
Prioritisation depends on your team's current gaps and immediate project needs, but certain skills appear frequently across upskilling roadmaps:
- Cross-functional communication: Translating technical constraints into language procurement, finance, and leadership can act on
- Cell degradation and life modelling: Understanding how operating conditions affect capacity fade and warranty exposure
- Supply chain and sourcing strategy: Knowing where materials come from, which suppliers are qualified, and how policy affects cost
- Regulatory fluency: Interpreting the EU Battery Regulation, IRA incentives, and due diligence requirements
Engineers who build these skills alongside their technical depth become the connectors who keep projects moving. They reduce handoff delays, catch specification mismatches earlier, and make better trade-off decisions.
How BatteryMBA Helps You Close Battery Skill Gaps
BatteryMBA is a 12-week live online CPD-accredited cohort taught by practitioners from OEMs, cell makers, integrators, and research institutes. Over 850 alumni across 60+ countries have used it to build value-chain fluency.
Engineering leaders use BatteryMBA as the shared baseline layer of their team development plan. When your systems engineer, procurement lead, and project manager complete the programme together, they build a common language that speeds up every design review and supplier decision.
The programme combines live lectures with interactive office hours across multiple time zones, so your team gets direct access to battery experts who have worked at Tesla, Hitachi, Fluence, and leading gigafactories. Team pricing is available for groups of five or more, with dedicated support to help you align training to your business outcomes.
Enrol your team in the next cohort and start building the battery expertise your projects need.
Informational and educational content only. Not professional, financial, legal, or engineering advice.