Growth Opportunities for the Grid-scale Battery Energy Storage Systems (BESS) Industry

Energy Growth Opportunities for the Grid-scale Battery Energy Storage Systems (BESS) Industry

The Era of Flexibility is Approaching the Mainstream, Intensifying Competition and Requiring New Strategies to Capture Value

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Energy

RELEASE DATE
04-Sep-2024
REGION
Global
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Market Research

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KA8A-01-00-00-00
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EG_2024_1000
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Growth Opportunities for the Grid-scale Battery Energy Storage Systems (BESS) Industry
Published on: 04-Sep-2024 | SKU: EG_2024_1000

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Global grid-scale battery energy storage system (BESS) deployment experienced unprecedented growth in 2023, expanding 159.5% from 2022. The year 2024 will break another record in new installations, with deployments of 41.84 GW/104.67 GWh.



BESS has rapidly become the fastest-growing clean energy technology, driven by the growth of wind and solar and the need for grid flexibility. Governments, system operators, and regulators recognize the diverse benefits of energy storage and are advancing regulations and incentives to support the technology’s deployment, albeit at varying rates. While North America, Europe, Australia and New Zealand (ANZ), and China are the most important regions for development, Japan, India, Turkey, Chile, South Africa, and Israel, among other countries, are at a turning point in terms of development and poised for considerable growth.



The low-price scenario and the push for domestic content and higher ESG transparency are injecting additional dynamism into the industry. Frost & Sullivan forecasts cumulative grid-scale BESS capacity to grow nearly eight-fold, reaching 549.93 GW/1,549.02 GWh by 2030.



This study provides a regional-level forecast and analysis of how grid-scale BESS capacity and investments will evolve by 2035. It discusses the main drivers and restraints, supply and technology trends, business models, and use cases. In addition, it highlights growth opportunities for industry participants.



Author: Maria Benintende

Key Takeaways: Grid-Scale Battery Energy Storage System Market

  • The Grid-Scale Battery Energy Storage System Market is experiencing unprecedented growth, fueled by the rapid expansion of renewable energy generation, increasing electricity demand, and the need for greater grid flexibility. Global deployments nearly tripled in 2023, establishing battery storage as one of the fastest-growing clean energy technologies.
  • Annual grid-scale BESS installations are projected to increase from 41.84 GW (104.67 GWh) in 2024 to 175.81 GW (665.81 GWh) by 2035, representing a compound annual growth rate (CAGR) of 14.2% between 2023 and 2035.
  • Frost & Sullivan forecasts cumulative installed Grid-Scale Battery Energy Storage System Market capacity to expand nearly eightfold, reaching 549.93 GW (1,549.02 GWh) by 2030, driven by accelerating renewable energy integration and supportive energy policies.
  • Declining battery cell prices, expanding lithium iron phosphate (LFP) battery production, and improvements in manufacturing capacity are significantly lowering deployment costs across the Battery Energy Storage System (BESS) Market, making large-scale storage projects increasingly economically viable.
  • Artificial intelligence (AI), advanced analytics, digital energy management systems, and predictive asset optimization are becoming essential technologies for improving battery performance, extending system life, and maximizing revenue generation within the Grid-Scale Battery Energy Storage System Market.
  • Government incentives, evolving electricity market regulations, increasing energy security concerns, and investments in resilient transmission infrastructure continue to strengthen long-term growth opportunities across the global Battery Energy Storage System (BESS) Market.

Report Summary: Grid-Scale Battery Energy Storage System Market

The Grid-Scale Battery Energy Storage System Market has entered a period of accelerated expansion as utilities, independent power producers (IPPs), and grid operators increasingly deploy battery storage to support renewable energy integration, strengthen grid reliability, and improve energy resilience. Rapid growth in solar and wind generation has created an urgent requirement for flexible storage systems capable of balancing intermittent renewable output while maintaining stable electricity supply.

The Battery Energy Storage System (BESS) Market is benefiting from favorable regulatory frameworks, government incentives, declining battery prices, and continuous technological advancements in battery chemistry, energy management software, and system integration. Improvements in manufacturing capacity—particularly for lithium iron phosphate (LFP) batteries—have significantly reduced battery costs while improving supply chain availability, accelerating commercial deployment worldwide.

Beyond hardware, the Grid-Scale Battery Energy Storage System Market increasingly incorporates artificial intelligence, predictive analytics, cloud-based monitoring platforms, and advanced energy management systems that optimize dispatch, extend battery life, and maximize project profitability. As countries pursue decarbonization targets and energy security initiatives, grid-scale battery storage is expected to become a foundational component of future electricity infrastructure, enabling utilities to transition toward more resilient, flexible, and sustainable power systems through 2035.

Market Overview & Trends: Grid-Scale Battery Energy Storage System Market

The Grid-Scale Battery Energy Storage System Market is transforming the global electricity sector by enabling utilities and power system operators to efficiently integrate renewable energy sources while maintaining grid stability and operational flexibility. As countries accelerate their transition toward low-carbon energy systems, battery storage has become an essential technology for balancing variable solar and wind generation, reducing renewable energy curtailment, and improving overall grid resilience.

One of the most significant trends shaping the Battery Energy Storage System (BESS) Market is the rapid decline in battery prices. Following supply chain disruptions and elevated raw material costs during 2021 and 2022, battery manufacturing capacity expanded considerably in 2023, particularly in China. Increased production capacity, falling lithium prices, wider adoption of lithium iron phosphate (LFP) batteries, and slower-than-expected electric vehicle demand have collectively reduced battery cell costs, improving the economic viability of utility-scale storage projects.

Another major trend within the Grid-Scale Battery Energy Storage System Market is the diversification of business models. Utilities are increasingly deploying storage systems for energy arbitrage, frequency regulation, capacity markets, peak shaving, transmission deferral, black-start capabilities, and ancillary grid services. These diversified revenue streams are improving project economics while encouraging greater private-sector investment.

Technological innovation is also reshaping the Battery Energy Storage System (BESS) Market. Artificial intelligence, digital twins, advanced battery management systems (BMS), cloud-based energy management platforms, and predictive analytics are enhancing system efficiency, battery lifespan, and operational reliability. At the same time, governments across North America, Europe, China, Australia, India, and emerging markets continue implementing supportive policies and incentive programs to accelerate storage adoption.

As renewable electricity generation expands worldwide and grid modernization becomes a strategic priority, the Grid-Scale Battery Energy Storage System Market is expected to witness sustained investment, stronger policy support, and rapid commercialization through 2035, positioning battery energy storage as a cornerstone of the future clean energy ecosystem.

Scope of Analysis: Grid-Scale Battery Energy Storage System Market

The Grid-Scale Battery Energy Storage System Market analysis provides a comprehensive assessment of global front-of-the-meter (FTM) battery energy storage systems deployed by utilities, independent power producers (IPPs), transmission system operators, distribution companies, and grid aggregators. The study covers the period from 2020 to 2035, using 2023 as the base year and 2024–2035 as the forecast period, with all financial estimates presented in US dollars.

The scope of the Battery Energy Storage System (BESS) Market focuses exclusively on large-scale electrochemical energy storage installations connected directly to the electricity grid. Residential, commercial, industrial behind-the-meter storage systems and off-grid applications are excluded from the analysis. Most projects included in the study exceed 0.5 MW of installed capacity, with many utility-scale projects extending to several hundred megawatts.

The report evaluates the complete value chain of the Grid-Scale Battery Energy Storage System Market, including battery cells and racks, balance of system (BoS), power conversion systems (PCS), energy management systems (EMS), engineering, procurement and construction (EPC), installation, commissioning, testing, and associated software platforms. It further analyzes regional deployment trends, investment forecasts, pricing evolution, technology developments, and policy frameworks influencing market expansion. Short-term (2024–2025), medium-term (2026–2027), and long-term (2028–2035) outlooks provide stakeholders with a detailed understanding of emerging opportunities and competitive dynamics across the global Battery Energy Storage System (BESS) Market.

Market Segmentation Analysis: Grid-Scale Battery Energy Storage System Market

The Grid-Scale Battery Energy Storage System Market is segmented geographically, reflecting variations in renewable energy adoption, grid modernization strategies, regulatory frameworks, electricity market maturity, and investment priorities. While battery storage deployment is expanding globally, market maturity differs significantly across developed and emerging economies.

North America remains one of the largest markets within the Battery Energy Storage System (BESS) Market, led primarily by the United States and Canada. Federal incentives, renewable energy mandates, transmission modernization initiatives, and increasing electricity demand continue to accelerate utility-scale battery deployments. Battery storage is increasingly used for frequency regulation, peak shaving, capacity markets, and renewable energy integration.

Europe represents another mature segment of the Grid-Scale Battery Energy Storage System Market, driven by ambitious decarbonization targets, energy security initiatives, electricity market reforms, and growing offshore wind capacity. Countries such as Germany, the United Kingdom, Italy, and Spain are investing heavily in grid-scale storage to support renewable integration and improve grid flexibility.

China continues to dominate global manufacturing and deployment activity. Massive battery manufacturing capacity, supportive government policies, competitive production costs, and large-scale renewable installations have positioned China as the world's leading contributor to battery energy storage growth. Continued investment in lithium iron phosphate (LFP) technology further strengthens its competitive advantage.

The Asia-Pacific region, including Australia, New Zealand, Japan, South Korea, and Southeast Asian countries, is emerging as a high-growth market. Australia has become a global leader in utility-scale battery projects, while countries such as India, Indonesia, Vietnam, and the Philippines are increasing investments to strengthen grid resilience and renewable energy integration.

Other emerging regional markets include Latin America, Middle East & North Africa (MENA), Sub-Saharan Africa, and Russia & CIS, where increasing renewable capacity additions, electrification initiatives, and international investment are creating new opportunities for the Battery Energy Storage System (BESS) Market. Although deployment remains at an earlier stage, supportive policy reforms and declining battery costs are expected to accelerate adoption over the forecast period.

Overall, regional diversification, expanding renewable energy capacity, evolving electricity market structures, and growing energy security concerns will continue driving the Grid-Scale Battery Energy Storage System Market across both mature and emerging economies.

Revenue & Spending Forecast: Grid-Scale Battery Energy Storage System Market

The Grid-Scale Battery Energy Storage System Market is expected to maintain double-digit growth through 2035 as governments, utilities, and private investors continue prioritizing renewable energy integration and grid modernization. According to the forecast, annual power capacity additions are projected to increase from 41.84 GW (104.67 GWh) in 2024 to 175.81 GW (665.81 GWh) by 2035, representing a compound annual growth rate (CAGR) of 14.2% between 2023 and 2035.

Revenue Forecast

Global cumulative installed battery energy storage capacity is forecast to expand nearly eightfold, reaching approximately 549.93 GW (1,549.02 GWh) by 2030, highlighting the accelerating deployment of utility-scale storage systems worldwide. This growth reflects increasing investments in renewable energy infrastructure, transmission modernization, and electricity market flexibility.

Capital expenditure across the Battery Energy Storage System (BESS) Market is also expected to rise significantly despite declining battery prices. Global BESS investments reached approximately US$32.24 billion in 2023, while annual capital expenditure is projected to increase substantially over the forecast period as deployment volumes accelerate. At the same time, continued reductions in battery cell prices, manufacturing efficiencies, and improvements in energy density are lowering the levelized cost of storage, improving project economics and expanding commercial adoption.

Investment spending within the Grid-Scale Battery Energy Storage System Market is increasingly shifting beyond battery hardware toward advanced Energy Management Systems (EMS), Power Conversion Systems (PCS), artificial intelligence-enabled optimization platforms, predictive analytics, and digital asset management software. As diversified revenue models mature and regulatory support expands, the Battery Energy Storage System (BESS) Market is expected to attract sustained long-term investments through 2035.

Growth Drivers: Grid-Scale Battery Energy Storage System Market 

The Grid-Scale Battery Energy Storage System Market is experiencing robust growth due to the accelerating transition toward renewable energy, increasing electrification, and the global need for flexible, resilient electricity networks. As wind and solar generation continue to expand, utilities are investing heavily in utility-scale battery storage to address intermittency, stabilize electricity supply, and improve grid reliability. These factors position the Battery Energy Storage System (BESS) Market as a critical enabler of the clean energy transition.

One of the strongest growth catalysts is the rapid decline in battery manufacturing costs. Expansion of lithium-ion production capacity, particularly for lithium iron phosphate (LFP) batteries, coupled with falling lithium prices and manufacturing efficiencies, has significantly reduced the cost of deploying grid-scale storage systems. Lower battery prices are improving project economics and encouraging greater investment across both developed and emerging markets.

Supportive government policies, tax incentives, renewable portfolio standards, and evolving electricity market regulations are further accelerating the Grid-Scale Battery Energy Storage System Market. Several countries have introduced dedicated funding programs and capacity market reforms that improve project bankability while creating multiple revenue streams through ancillary services, frequency regulation, energy arbitrage, peak shaving, and grid balancing.

Increasing occurrences of extreme weather events, grid disruptions, and growing energy security concerns are also driving investment in the Battery Energy Storage System (BESS) Market. Utilities are deploying battery storage to strengthen grid resilience and ensure uninterrupted electricity supply during emergencies. Furthermore, advancements in artificial intelligence (AI), battery management systems (BMS), digital twins, and energy management systems (EMS) are enhancing battery performance, extending asset lifespan, and maximizing operational efficiency, reinforcing the long-term growth outlook for the Grid-Scale Battery Energy Storage System Market.

Growth Restraints: Grid-Scale Battery Energy Storage System Market

Despite its strong long-term outlook, the Grid-Scale Battery Energy Storage System Market continues to face several structural and economic challenges that may slow deployment across certain regions. One of the primary barriers is the substantial upfront capital investment required for utility-scale battery storage projects. Although battery prices are declining, engineering, procurement, construction (EPC), power conversion systems (PCS), and grid interconnection costs remain significant, particularly in markets with limited financial incentives.

Regulatory uncertainty also affects the Battery Energy Storage System (BESS) Market. In several countries, unclear market rules, inconsistent permitting procedures, limited access to electricity markets, and the absence of well-defined compensation mechanisms for ancillary services continue to delay project development and reduce investor confidence.

Grid infrastructure limitations present another major restraint. Many transmission and distribution networks lack sufficient interconnection capacity to accommodate new battery storage installations, while lengthy permitting and commissioning processes often postpone commercial operations. These infrastructure bottlenecks increase project timelines and overall development costs.

Additionally, evolving domestic content requirements and supply chain diversification initiatives are increasing sourcing complexity for battery manufacturers and EPC contractors. Dependence on critical minerals and global battery supply chains exposes projects to geopolitical risks and price volatility. Addressing these regulatory, financial, and infrastructure-related challenges will be essential for unlocking the full potential of the Grid-Scale Battery Energy Storage System Market and sustaining long-term expansion of the Battery Energy Storage System (BESS) Market.

Why is it Increasingly Difficult to Grow?

The Strategic Imperative 8™

The Impact of the Top 3 Strategic Imperatives on the Grid-scale BESS Industry

Growth Opportunities Fuel the Growth Pipeline Engine™

Scope of Analysis

Regional Segmentation

Key Findings

Key Trends Shaping the Industry

Trend 1—AI Revolutionizing the BESS Value Chain

Trend 2—Stronger Emphasis on Energy Shifting with Longer-duration Systems

Trend 3—Greater Transparency and ESG Accountability for Batteries

Trend 4—Solar-Plus-Storage, the Perfect Match

Trend 5—BESS to Guarantee 24/7 Clean Electrons

Trend 6—Higher Demand for Optimization Services

Trend 7—Challenging Outlook for EV Second-life Batteries

Trend 8—The Alternatives to Lithium

Trend 9—Thermal Power Plant Retrofits with BESS

Grid-scale BESS Components

Grid-scale BESS Value Chain

Key Grid-scale BESS Suppliers

Growth Metrics

Growth Drivers

Growth Driver Analysis—Expansion of Intermittent RE

Growth Driver Analysis—Cost Declines

Growth Driver Analysis—Supportive Policies, Incentives, and Market Regulations

Growth Restraints

Forecast Assumptions

Cumulative Power Capacity Growth

Cumulative Power Capacity Forecast

Annual Energy Capacity Additions Forecast

Annual Energy Capacity Forecast by Region

Capex Forecast

Pricing Trends and Forecast Analysis

Regional Analysis—Market Status

Regional Analysis—North America

Annual Additions by Sub-region—North America

Regional Analysis—Europe

Annual Additions by Sub-region—Europe

Regional Analysis—ANZ & Pacific

Annual Additions by Sub-region—ANZ & Pacific

Regional Analysis—China

Annual Additions—China

Regional Analysis—East Asia

Annual Additions by Sub-region—East Asia

Regional Analysis—India & South Asia

Annual Additions by Sub-region—India & South Asia

Regional Analysis—ASEAN

Annual Additions by Sub-region—ASEAN

Regional Analysis—Middle East & North Africa

Annual Additions by Sub-region—Middle East & North Africa

Regional Analysis—Latin America

Annual Additions by Sub-region—Latin America

Regional Analysis—Sub-Saharan Africa

Annual Additions by Sub-region—Sub-Saharan Africa

Regional Analysis—Russia & CIS

Annual Additions by Sub-region—Russia & CIS

Growth Opportunity 1—AI and Advanced Analytics-based Platforms for BESS Optimization

Growth Opportunity 2—IoT Edge Platforms to Expedite BESS Integration

Growth Opportunity 3—Storage-as-a-Service for Aggregators

Growth Opportunity 4—BESS to Shape PPAs

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List of Figures
  • Grid-scale BESS: Share of Capacity Additions by Application, Global, 2020–2023
  • Grid-scale BESS: Standalone Battery Storage and Solar-plus-Storage Power Capacity, United States, 2022
  • Grid-scale BESS: Share of Capacity Additions by Chemistry, Global, 2020, 2023, and 2030
  • Grid-scale BESS: DC Module Manufacturers and Integrators, Global, 2023
  • Grid-scale BESS: Growth Metrics, Global, 2023
  • Grid-scale BESS: Growth Drivers, Global, 2024–2035
  • Grid-scale BESS: Wind and Solar Annual Capacity Additions, Global, 2023–2035
  • Developments in Li-ion Battery Production Capacity Global, 2022–2030
  • Number of Gigafactories and Production Capacity, Global, 2022–2030
  • Estimated Battery Production Capacity, Global, 2023, 2025, and 2030
  • Average Battery Cell Prices, Global, 2015–2030
  • Grid-scale BESS: Growth Restraints, Global, 2024–2035
  • Grid-scale BESS: Cumulative Power Capacity Additions, Global, 2020–2035
  • Grid-scale BESS: Cumulative Power Capacity Additions Forecast, Global, 2035
  • Grid-scale BESS: Annual Power Capacity Additions, Global, 2020–2035
  • Grid-scale BESS: Annual Energy Capacity Additions, Global, 2020–2035
  • Grid-scale BESS: Annual Energy Capacity Forecast by Region, Global, 2020–2035
  • Grid-scale BESS: Capex, Global, 2020–2035
  • Grid-scale BESS: Cumulative Capacity, North America, 2020–2035
  • Grid-scale BESS: Annual Additions by Sub-region, North America, 2020–2035
  • Grid-scale BESS: Cumulative Capacity, Europe, 2020–2035
  • Grid-scale BESS: Annual Additions by Sub-region, Select Countries, Europe, 2020–2035
  • Grid-scale BESS: Cumulative Capacity, ANZ & Pacific, 2020–2035
  • Grid-scale BESS: Annual Additions by Sub-region, ANZ & Pacific, 2020–2035
  • Grid-scale BESS: Cumulative Capacity, China, 2020–2035
  • Grid-scale BESS: Annual Additions, China, 2020–2035
  • Grid-scale BESS: Cumulative Capacity, East Asia, 2020–2035
  • Grid-scale BESS: Annual Additions by Sub-region, East Asia, 2020-2035
  • Grid-scale BESS: Cumulative Capacity, India & South Asia, 2020-2035
  • Grid-scale BESS: Annual Additions by Sub-region, India & South Asia, 2020–2035
  • Grid-scale BESS: Cumulative Capacity, ASEAN, 2020–2035
  • Grid-scale BESS: Annual Additions by Sub-region, ASEAN, 2020–2035
  • Grid-scale BESS: Cumulative Capacity, Middle East & North Africa, 2020–2035
  • Grid-scale BESS: Annual Additions by Sub-region, Middle East & North Africa, 2020–2035
  • Grid-scale BESS: Cumulative Capacity, Latin America, 2020–2035
  • Grid-scale BESS: Annual Additions by Sub-region, Latin America, 2020–2035
  • Grid-scale BESS: Cumulative Capacity, Sub-Saharan Africa, 2020–2035
  • Grid-scale BESS: Annual Additions by Sub-region, Sub-Saharan Africa, 2020–2035
  • Grid-scale BESS: Cumulative Capacity, Russia & CIS, 2020–2035
  • Grid-scale BESS: Annual Additions by Sub-region, Russia & CIS, 2020–2035

Frequently Asked Questions (FAQs) – Grid-Scale Battery Energy Storage System Market

1. What is the Grid-Scale Battery Energy Storage System Market?
The Grid-Scale Battery Energy Storage System Market comprises large-scale battery storage solutions that support electricity grids by storing renewable energy, balancing supply and demand, and improving grid reliability.
2. What is driving growth in the Battery Energy Storage System (BESS) Market?
Key growth drivers include renewable energy expansion, declining battery costs, supportive government incentives, grid modernization, electrification, and increasing demand for energy security and resilience.
3. What is the projected CAGR of the Grid-Scale Battery Energy Storage System Market?
The market is projected to grow at a compound annual growth rate (CAGR) of approximately 14.2% between 2023 and 2035.
4. Which battery chemistry dominates utility-scale energy storage?
Lithium-ion batteries dominate the Battery Energy Storage System (BESS) Market, with lithium iron phosphate (LFP) chemistry gaining significant market share because of its safety, durability, and cost advantages.
5. How do grid-scale BESS projects generate revenue?
Revenue is generated through energy arbitrage, frequency regulation, ancillary services, capacity markets, peak shaving, transmission deferral, and renewable energy integration.
6. Which regions are leading the Grid-Scale Battery Energy Storage System Market?
China, North America, Europe, Australia, and several Asia-Pacific countries currently lead global deployments due to strong renewable energy investments and supportive policy frameworks.
7. What are the major challenges facing the Battery Energy Storage System (BESS) Market?
Major challenges include high capital costs, grid interconnection delays, regulatory uncertainty, supply chain constraints, domestic content requirements, and critical mineral availability.
8. What role does AI play in battery energy storage systems?
AI improves battery performance through predictive maintenance, intelligent dispatch, state-of-health monitoring, energy optimization, and battery lifecycle management.
9. Why is grid-scale battery storage important for renewable energy?
Grid-scale battery storage balances intermittent renewable generation, reduces curtailment, enhances grid stability, and enables higher penetration of solar and wind energy.
10. What is the future outlook for the Grid-Scale Battery Energy Storage System Market?
The Grid-Scale Battery Energy Storage System Market is expected to witness sustained double-digit growth through 2035, supported by declining battery costs, increasing renewable energy capacity, evolving electricity markets, and global decarbonization initiatives.

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Global grid-scale battery energy storage system (BESS) deployment experienced unprecedented growth in 2023, expanding 159.5% from 2022. The year 2024 will break another record in new installations, with deployments of 41.84 GW/104.67 GWh. BESS has rapidly become the fastest-growing clean energy technology, driven by the growth of wind and solar and the need for grid flexibility. Governments, system operators, and regulators recognize the diverse benefits of energy storage and are advancing regulations and incentives to support the technology s deployment, albeit at varying rates. While North America, Europe, Australia and New Zealand (ANZ), and China are the most important regions for development, Japan, India, Turkey, Chile, South Africa, and Israel, among other countries, are at a turning point in terms of development and poised for considerable growth. The low-price scenario and the push for domestic content and higher ESG transparency are injecting additional dynamism into the industry. Frost & Sullivan forecasts cumulative grid-scale BESS capacity to grow nearly eight-fold, reaching 549.93 GW/1,549.02 GWh by 2030. This study provides a regional-level forecast and analysis of how grid-scale BESS capacity and investments will evolve by 2035. It discusses the main drivers and restraints, supply and technology trends, business models, and use cases. In addition, it highlights growth opportunities for industry participants. Author: Maria Benintende
More Information
Deliverable Type Market Research
Author Maria Benintende
Industries Energy
No Index No
Is Prebook No
Keyword 1 Grid-Scale BESS Market
Keyword 2 Battery Energy Storage Systems
Keyword 3 BESS Industry Growth
List of Charts and Figures Grid-scale BESS: Share of Capacity Additions by Application, Global, 2020–2023~ Grid-scale BESS: Standalone Battery Storage and Solar-plus-Storage Power Capacity, United States, 2022~ Grid-scale BESS: Share of Capacity Additions by Chemistry, Global, 2020, 2023, and 2030~ Grid-scale BESS: DC Module Manufacturers and Integrators, Global, 2023~ Grid-scale BESS: Growth Metrics, Global, 2023~ Grid-scale BESS: Growth Drivers, Global, 2024–2035~ Grid-scale BESS: Wind and Solar Annual Capacity Additions, Global, 2023–2035~ Developments in Li-ion Battery Production Capacity Global, 2022–2030~ Number of Gigafactories and Production Capacity, Global, 2022–2030~ Estimated Battery Production Capacity, Global, 2023, 2025, and 2030~ Average Battery Cell Prices, Global, 2015–2030~ Grid-scale BESS: Growth Restraints, Global, 2024–2035~ Grid-scale BESS: Cumulative Power Capacity Additions, Global, 2020–2035~ Grid-scale BESS: Cumulative Power Capacity Additions Forecast, Global, 2035~ Grid-scale BESS: Annual Power Capacity Additions, Global, 2020–2035~ Grid-scale BESS: Annual Energy Capacity Additions, Global, 2020–2035~ Grid-scale BESS: Annual Energy Capacity Forecast by Region, Global, 2020–2035~ Grid-scale BESS: Capex, Global, 2020–2035~ Grid-scale BESS: Cumulative Capacity, North America, 2020–2035~ Grid-scale BESS: Annual Additions by Sub-region, North America, 2020–2035~ Grid-scale BESS: Cumulative Capacity, Europe, 2020–2035~ Grid-scale BESS: Annual Additions by Sub-region, Select Countries, Europe, 2020–2035~ Grid-scale BESS: Cumulative Capacity, ANZ & Pacific, 2020–2035~ Grid-scale BESS: Annual Additions by Sub-region, ANZ & Pacific, 2020–2035~ Grid-scale BESS: Cumulative Capacity, China, 2020–2035~ Grid-scale BESS: Annual Additions, China, 2020–2035~ Grid-scale BESS: Cumulative Capacity, East Asia, 2020–2035~ Grid-scale BESS: Annual Additions by Sub-region, East Asia, 2020-2035~ Grid-scale BESS: Cumulative Capacity, India & South Asia, 2020-2035~ Grid-scale BESS: Annual Additions by Sub-region, India & South Asia, 2020–2035~ Grid-scale BESS: Cumulative Capacity, ASEAN, 2020–2035~ Grid-scale BESS: Annual Additions by Sub-region, ASEAN, 2020–2035~ Grid-scale BESS: Cumulative Capacity, Middle East & North Africa, 2020–2035~ Grid-scale BESS: Annual Additions by Sub-region, Middle East & North Africa, 2020–2035~ Grid-scale BESS: Cumulative Capacity, Latin America, 2020–2035~ Grid-scale BESS: Annual Additions by Sub-region, Latin America, 2020–2035~ Grid-scale BESS: Cumulative Capacity, Sub-Saharan Africa, 2020–2035~ Grid-scale BESS: Annual Additions by Sub-region, Sub-Saharan Africa, 2020–2035~ Grid-scale BESS: Cumulative Capacity, Russia & CIS, 2020–2035~ Grid-scale BESS: Annual Additions by Sub-region, Russia & CIS, 2020–2035~
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