Three Horizons Framework
for Manufacture of batteries and accumulators (ISIC 2720)
The battery industry is in a perpetual state of technological evolution, with existing technologies (e.g., Li-ion) undergoing continuous improvement (H1), while several next-generation technologies (e.g., solid-state, sodium-ion) are on the cusp of commercialization (H2), and entirely new energy...
Why This Strategy Applies
A framework for managing growth and innovation across short-term (H1: Defend/Extend), mid-term (H2: Build), and long-term (H3: Future) timeframes.
GTIAS pillars this strategy draws on — and this industry's average score per pillar
These pillar scores reflect Manufacture of batteries and accumulators's structural characteristics. Higher scores indicate greater complexity or risk — see the full scorecard for all 81 attributes.
Short, medium, and long-term strategic priorities
Optimize current Li-ion battery production for cost, performance, and sustainability, ensuring profitability and market share in established applications like EVs and grid storage.
- Implement advanced manufacturing techniques (e.g., dry electrode coating, AI-driven process control) to reduce production costs and increase yield for existing Li-ion lines.
- Enhance existing Li-ion cell designs (e.g., higher nickel content cathodes, silicon-oxide anode additives) to incrementally improve energy density, fast charging, and cycle life for automotive applications.
- Develop and integrate robust Battery Management Systems (BMS) with improved safety features, predictive maintenance, and cloud connectivity for current product lines.
- Establish closed-loop recycling programs for end-of-life Li-ion batteries to secure raw material supply, reduce environmental impact, and meet emerging regulatory demands.
Scale up and commercialize promising next-generation battery chemistries and manufacturing processes that are beyond incremental improvements, preparing them for widespread adoption.
- Establish pilot and small-to-medium scale production lines for solid-state battery cells, focusing on manufacturing scalability, cost reduction, and performance validation.
- Invest in large-scale production facilities for sodium-ion (Na-ion) batteries, targeting stationary storage and entry-level EV markets due to lower cost and material abundance.
- Develop and integrate advanced anode materials (e.g., high-content silicon anodes, pre-lithiated silicon anodes) into existing or next-gen cell architectures to significantly boost energy density.
- Form strategic partnerships and joint ventures with automotive OEMs, grid operators, and raw material suppliers to co-develop, validate, and secure off-take agreements for next-generation battery packs.
Explore and invest in truly disruptive energy storage technologies and business models that could fundamentally redefine the industry beyond current electrochemical paradigms and address future energy needs.
- Fund early-stage research into novel battery architectures (e.g., structural batteries, flow batteries for specific grid applications) and energy conversion technologies (e.g., advanced supercapacitors).
- Invest in corporate venture capital funds or directly acquire startups focusing on entirely new battery materials (e.g., organic batteries, metal-air batteries) or manufacturing methods (e.g., additive manufacturing of electrodes).
- Explore and pilot circular economy models for battery materials beyond traditional recycling, such as direct reuse, repair, and advanced material reclamation techniques for future chemistries.
- Participate in international consortia and academic partnerships to research fundamental breakthroughs in energy storage physics and materials science (e.g., quantum batteries, sustainable raw material alternatives like seawater extraction).
Strategic Overview
The 'Manufacture of batteries and accumulators' industry is characterized by rapid technological advancements, intense R&D competition, and significant capital expenditure. The Three Horizons Framework is critically relevant for firms in this sector to navigate the complexities of balancing short-term profitability from existing technologies (Horizon 1) with the development and scaling of emerging technologies (Horizon 2) and the exploration of disruptive, long-term innovations (Horizon 3). This structured approach helps allocate resources effectively, mitigating risks such as market obsolescence (MD01) and high R&D burdens (IN05) by systematically managing innovation across different timeframes.
Firms must continuously optimize their current lithium-ion battery offerings for performance, cost, and efficiency to remain competitive in Horizon 1, addressing challenges like margin volatility (MD03) and market timing (MD04). Simultaneously, they need to invest in scaling and commercializing promising next-generation chemistries, such as solid-state or sodium-ion batteries, in Horizon 2, which involves substantial CapEx risk (MD04) and potential stranded assets (MD01). Concurrently, Horizon 3 demands strategic investment in fundamental research and exploration of truly disruptive energy storage concepts, often through academic or venture partnerships, to secure future market positions and overcome structural competitive regimes (MD07).
Successfully implementing the Three Horizons Framework enables battery manufacturers to sustain growth, adapt to evolving market demands, and proactively address the inherent technological and market risks of the industry. It fosters a portfolio approach to innovation, ensuring that resources are not solely concentrated on incremental improvements or, conversely, spread too thinly across speculative ventures, thereby bridging the 'valley of death' for critical innovations (IN03) and managing policy dependencies (IN04) by maintaining a diversified innovation pipeline.
4 strategic insights for this industry
Continuous Optimization of Current Technologies (Horizon 1)
Firms must relentlessly pursue incremental improvements in existing Li-ion battery technology, focusing on reducing manufacturing costs, enhancing energy density, increasing cycle life, and improving safety. This Horizon is crucial for maintaining market share, generating current revenue, and funding H2/H3 activities, particularly in highly competitive segments like EVs and consumer electronics. The challenge here is balancing cost reduction with performance demands and avoiding commoditization.
Strategic Scaling of Next-Generation Chemistries (Horizon 2)
Mid-term growth necessitates significant investment in scaling promising next-generation battery technologies such as solid-state, silicon-anode, or sodium-ion batteries. This involves building pilot production lines, securing raw material supply chains, and establishing strategic partnerships with OEMs. The risk is high capital expenditure (MD04) and the potential for stranded assets (MD01) if a technology fails to achieve commercial viability or market adoption, but the reward is access to new, higher-margin markets.
Exploration of Disruptive Future Technologies (Horizon 3)
Long-term viability requires active exploration and investment in truly disruptive energy storage concepts, potentially outside the current Li-ion paradigm (e.g., flow batteries, novel materials, quantum dots). This horizon is characterized by high uncertainty, long timeframes, and often involves collaboration with academic institutions, venture capital, and startups. The goal is to create new markets or fundamentally redefine existing ones, mitigating long-term market saturation (MD08) and technology obsolescence (MD01).
Resource Allocation and Portfolio Management Complexity
A key challenge is the optimal allocation of financial and human capital across the three horizons. Over-investment in H1 can lead to missed H2/H3 opportunities, while excessive focus on H2/H3 can jeopardize current profitability. This requires sophisticated portfolio management, clear governance, and mechanisms to bridge innovation from research to commercialization, especially given the 'Strategic R&D Prioritization Dilemma' (IN03) and 'Talent War & Expertise Scarcity' (IN05).
Prioritized actions for this industry
Establish Dedicated Innovation Units with Distinct Funding and Metrics for Each Horizon
This prevents H1's operational pressures from stifling H2/H3 innovation. Horizon 1 units focus on incremental gains and cost reduction, H2 on scaling and market penetration of new technologies, and H3 on exploratory research with different risk appetites and success metrics. This addresses the 'Strategic R&D Prioritization Dilemma' (IN03) and mitigates 'Risk of Stranded Assets' (MD01).
Form Strategic Partnerships and Joint Ventures for Horizon 2 Development
Given the 'High Capital Intensity & Financial Risk' (IN05) and 'Capital Expenditure (CapEx) Risk' (MD04) of scaling new battery chemistries, collaborating with OEMs, raw material suppliers, or specialized technology developers can share risks, pool resources, and accelerate market entry. This also helps in navigating 'Policy Volatility and Uncertainty' (IN04) by leveraging diverse networks.
Allocate a Fixed Percentage of Revenue to Horizon 3 'Blue Sky' Research and Corporate Venture Capital
Consistent investment in early-stage, high-risk research ensures the firm has options for future disruptive technologies, combating 'Market Obsolescence & Substitution Risk' (MD01) and fostering 'Innovation Option Value' (IN03). This mitigates the 'R&D Burden' (IN05) by making it a sustainable, budgeted activity rather than ad-hoc.
Implement Robust Stage-Gate Processes with Clear Off-Ramps and Hand-offs Between Horizons
This ensures that innovations progress systematically from research to development to commercialization. Clear criteria for moving between horizons (e.g., lab-scale proof-of-concept for H3 to H2, pilot production success for H2 to H1 commercialization) reduce 'Misdirected R&D Investment' (IN01) and manage 'Technology Adoption & Legacy Drag' (IN02) by preventing premature scaling or prolonged R&D on unviable projects.
From quick wins to long-term transformation
- Establish a cross-functional 'Horizon 1 Optimization Team' to identify and implement immediate cost reduction and efficiency gains in current Li-ion production.
- Formalize an 'Innovation Funnel' for idea generation and initial screening across all horizons, ensuring a diverse pipeline of potential projects.
- Allocate a small, dedicated 'Discovery Fund' for H3 exploratory concepts, allowing for rapid, low-cost experimentation.
- Develop pilot production lines for two to three most promising Horizon 2 technologies (e.g., solid-state, sodium-ion) to assess manufacturability and performance at scale.
- Initiate strategic partnerships with key raw material suppliers and potential OEM customers for Horizon 2 technologies to de-risk supply chains and secure future demand.
- Implement robust portfolio management software to track R&D projects across horizons, monitor KPIs, and facilitate data-driven resource allocation decisions.
- Establish a dedicated corporate venture capital arm or participate in a battery technology incubator to invest in and monitor disruptive Horizon 3 innovations.
- Develop internal talent development programs and external academic collaborations focused on long-term materials science and electrochemistry breakthroughs.
- Integrate sustainability and circular economy principles into all three horizons, from H1 process optimization to H3 novel material research, anticipating future regulatory and market demands.
- Under-resourcing Horizon 2 and 3: Prioritizing immediate H1 demands too heavily, leading to a lack of future growth options.
- Lack of clear governance and separate metrics: Applying H1 commercialization metrics to H2/H3 research, stifling innovation and leading to project abandonment.
- 'Not invented here' syndrome: Failing to leverage external partnerships and acquire promising H2/H3 technologies developed elsewhere.
- Innovation churn: Constantly shifting priorities and abandoning promising H2/H3 projects prematurely due to short-term market fluctuations or investor pressure.
- Failure to transition: Inadequate processes to move successful H2 innovations into H1 commercial scale, creating 'valley of death' issues.
Measuring strategic progress
| Metric | Description | Target Benchmark |
|---|---|---|
| Horizon 1: Manufacturing Cost Per kWh | Measures the cost efficiency of producing existing battery technologies. | Continuous year-over-year reduction of 3-5% for Li-ion. |
| Horizon 2: Pilot Production Yield & Performance Metrics | Evaluates the manufacturability and technical viability of next-generation chemistries at scale. | Achieve 80% yield on pilot lines; demonstrated energy density/cycle life within 10% of lab-scale targets. |
| Horizon 3: R&D Investment as % of Revenue | Tracks the commitment to long-term exploratory research. | Minimum 5-7% of revenue allocated to R&D, with 15-20% of that specifically for H3 projects. |
| Total Patent Filings & Granted Patents (per horizon) | Indicates innovation output and intellectual property protection across different timeframes. | Increase in H2/H3 patent portfolio by 10-15% annually; maintain H1 process innovation patents. |
| Horizon 2: Strategic Partnership Engagement & Success Rate | Measures the effectiveness of collaborations for scaling new technologies. | Secure 2-3 new strategic partnerships annually for H2; >70% success rate in achieving defined JV milestones. |
Other strategy analyses for Manufacture of batteries and accumulators
Also see: Three Horizons Framework Framework