세계의 우주용 배터리 시장 : 플랫폼별, 배터리 유형별, 출력별, 지역별 분석 및 예측(2025-2035년)

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Introduction to the Space Battery Market

The space battery market plays a pivotal role in powering the new wave of space activity by providing reliable, mission-critical energy storage for satellites, orbital transfer vehicles, launch vehicles, and space stations. Batteries are indispensable across the mission lifecycle; they bridge eclipse periods before solar arrays deploy, support high-demand events such as maneuvers and instrument operations, and ensure continuity on long-duration missions where sunlight is intermittent or unavailable. As launch cadence rises and mission architectures become more ambitious, the market is shifting toward safer, lighter, and higher-energy solutions, space today, with rapid progress in solid-state and lithium-sulfur chemistries, complemented by smart, modular pack designs and AI-enabled battery management systems that raise reliability and extend useful life.

Market Introduction

In 2024, the global space battery market was valued at $851.8 million. Under the realistic scenario, it is projected to reach $1,418.1 million by 2035, reflecting a 4.81% CAGR over the forecast horizon. Growth is anchored in the surge of satellite deployments across commercial, civil, and defense applications; in technology advances that lift energy density while cutting mass; and in the adoption of AI-driven diagnostics that improve safety, availability, and maintainability in orbit. Together, satellite operators, space agencies, integrators, and battery suppliers are expanding the role of space batteries from a passive power reservoir to an actively managed, software-defined subsystem that underwrites mission success in radiation-rich, thermally volatile environments.

The platform mix is broad and increasing in sophistication. Satellites remain the principal demand center, with strong momentum in low Earth orbit constellations and growing emphasis on power-dense systems for GEO and deep-space assets. Orbital transfer vehicles and space logistics platforms are catalyzing needs for high-power, fast-cycling batteries that pair effectively with electric propulsion. Space stations and over-the-horizon sustained lunar infrastructure are driving requirements for long-life, fault-tolerant packs and advanced thermal control. Across this spectrum, qualification rigor and platform-specific customization remain decisive, shaping the competitive playing field for chemistry choices, pack architecture, and battery management strategies.

Market Impact

The space battery market's near-term impact will be most visible in program cadence, platform performance, and qualification economics rather than broad environmental outcomes. Higher energy density and pack modularity are expanding usable power margins across key platforms, i.e., satellites, orbital transfer vehicles, space stations, and launch vehicles, allowing operators to carry more payload, extend duty cycles, or add new mission services without redesigning the bus. This translates into faster constellation build-outs, smoother in-orbit commissioning, and greater maneuver authority for OTVs as electric-propulsion use scales.

Advances at the chemistry and system levels are reshaping the cost/performance envelope that procurement teams evaluate at PDR/CDR. Solid-state and lithium-sulfur roadmaps promise step-changes in specific energy and abuse tolerance, while next-generation Li-ion continues to be the workhorse for near-term flights. For integrators, this yields tighter mass and thermal budgets, simpler harnessing, and pack configurations that can be qualified once and reused across multiple SKUs and power classes.

At the same time, export controls and critical-minerals policies shape sourcing of cells, separators, and electronics, influencing regional make-versus-buy decisions and favoring vendors that can certify to multiple regulatory baselines (ITAR/ECSS) without redesign. As private capital accelerates (new LEO/GEO systems, lunar infrastructure, deep-space probes), buyers are prioritizing platforms and suppliers that can scale production while meeting qualification gates, turning battery technology selection, pack modularity, and certification credibility into decisive factors for award and schedule risk mitigation.

Industrial Impact

The space battery market is driving a deep reconfiguration of the global supply chain. The value chain extends from raw materials (lithium, nickel, cobalt, manganese, graphite, and separator foils), through cell and component manufacturing, to module/system integration, deployment, and ultimately end-of-life recycling. According to BIS Research estimates, raw materials contribute roughly 15-25% of the value, cells and components 25-35%, modules and system integration 20-30%, deployment 10-20%, and recycling 5-15%. This distribution reflects both the capital intensity of upstream mining/processing and the rising importance of downstream services, such as in-orbit servicing and recovery.

Industrial investment is scaling across multiple nodes. North America and Europe are focusing on high-purity lithium and cathode processing, while Japan and South Korea maintain strength in separators, anodes, and specialty electrolytes. The integration segment, particularly for satellites, OTVs, and lunar infrastructure, is consolidating around players with proven space qualification credentials (GS Yuasa, Saft Groupe, EnerSys, EaglePicher). Recycling and circular-economy approaches are still nascent but expected to expand as volumes rise, with initiatives such as space-focused secondary mineral recovery and hybrid terrestrial/space recycling loops gaining attention. Collectively, these industrial shifts reinforce the strategic nature of the space battery sector, linking national mineral security, advanced manufacturing, and long-term sustainability.

Industry and Technology Overview

Three technology vectors are shaping the market trajectory. First, solid-state batteries are emerging as a key future solution, offering improved safety, higher energy density, and longer cycle life, critical in radiation-heavy or thermally volatile orbits. Their adoption remains limited to prototypes but is expected to scale by the early 2030s. Second, smart modular battery systems are enabling mission-specific customization. Modular integration reduces NRE (non-recurring engineering) costs, shortens qualification cycles, and supports plug-and-play replacement in satellites and OTVs, aligning with responsive space and mega-constellation demands. Third, AI-enabled battery management systems (BMS) are transforming reliability. By leveraging sensor fusion, digital twins, and predictive maintenance, these BMS can anticipate failures, manage thermal loads, and extend mission lifetimes, moving the battery from a passive subsystem to an intelligent, software-defined asset.

Regulatory and R&D frameworks further reinforce these trends. Agencies such as NASA, ESA, and JAXA are embedding more stringent qualification standards around thermal runaway prevention, redundancy, and fail-safe operation. Export controls (ITAR, ECSS) influence supplier sourcing and certification paths, while patents in lithium-sulfur, solid-state, and hybrid chemistries indicate growing cross-industry spillover from terrestrial EV and grid storage domains. Collectively, these dynamics underscore a dual imperative; space batteries must meet cutting-edge energy density and modularity demands while maintaining uncompromising safety and reliability.

Market Segmentation:

Segmentation 1: by Platform

• Satellites
• Deep Space Missions
• Orbital Transfer Vehicles (OTVs)
• Space Stations
• Launch Vehicles

Satellites to Lead the Space Battery Market (by Platform)

Satellites remain the largest and most reliable demand center for space batteries, expanding from $605.8 million in 2024 to $962.8 million by 2035. Their dominance stems from the sheer scale of launch activity; more than 80% of planned orbital missions through 2035 are directly tied to satellite deployments. In low Earth orbit (LEO), mega-constellations for broadband connectivity, Earth observation, and defense reconnaissance require modular, high-cycle batteries capable of surviving thousands of charge/discharge cycles. In geostationary orbit (GEO), increasing payload sophistication, including advanced communication transponders and high-throughput satellites, demands packs with greater energy density and redundancy.

As the satellite market diversifies, from CubeSats to massive GEO platforms, space batteries must deliver fault tolerance, modularity, and qualification for hundreds of eclipse cycles. Smart BMS systems, thermal shielding, and modular pack designs are becoming prerequisites. This continuous demand ensures satellites remain the dominant platform segment for the foreseeable future, anchoring revenue for suppliers while driving innovation that later flows into OTVs, stations, and deep-space missions.

Segmentation 2: by Battery Type

• Lithium-Based Batteries
• Silver-Zinc Batteries
• Nickel-Based Batteries
• Others

Lithium-Based Batteries to Dominate the Space Battery Market (by Battery Type)

Lithium-based batteries continue to account for the majority of market share, rising from $776.1 million in 2024 to $1,307.9 million by 2035. Their success lies in their superior energy density, lighter mass, and adaptability to modular pack designs. Unlike nickel-hydrogen or nickel-cadmium systems, which remain limited to a handful of long-standing programs, lithium chemistries support the performance and scalability required by today's high-throughput constellations.

Future derivatives such as solid-state lithium and lithium-sulfur (Li-S) are expected to extend the dominance of this segment by improving safety, eliminating flammable liquid electrolytes, and offering substantial mass savings. While nickel-based chemistries provide proven robustness and have flown successfully for decades, their bulk and cycle limitations reduce their competitiveness. Lithium batteries, with their ability to integrate into smart modular systems and leverage predictive AI-driven BMS, will continue to be the backbone of space power through the forecast period 2025-2035, expanding both in absolute scale and in share of mission-critical applications.

Segmentation 3: by Power

• Less than 1 kW
• 1-10 kW
• 11-100 kW
• More than 100 kW
• 1-10 kW Segment to Lead the Space Battery Market (by Power)

Space batteries rated in the 1-10 kW power range are projected to dominate, growing from $426.8 million in 2024 to $699.1 million by 2035 in North America. This segment aligns closely with the needs of satellites, OTVs, and smaller space stations, which require compact, energy-dense packs capable of sustained discharge without excessive thermal buildup. The balance offered by 1-10 kW systems is high enough to support propulsion assists, communications, and payload operations, yet low enough to remain manageable for qualification, making them the workhorse of the industry.

As payloads and mission complexity increase, demand in the 11-100 kW and >100 kW segments will accelerate, particularly for lunar habitats, large orbital platforms, and heavy OTVs. However, the 1-10 kW range is expected to remain the backbone of constellation deployments and tactical missions. Its combination of scalability, reliability, and relatively straightforward qualification will ensure this power class continues to dominate in both unit volume and overall market value through 2035.

Segmentation 4: by Region

• North America
• Europe
• Asia-Pacific
• Rest-of-the-World

North America to Lead the Space Battery Market (by Region)

North America is expected to maintain its regional leadership, expanding from $710.5 million in 2024 to $1,174.7 million by 2035. The U.S. anchors this dominance through NASA's Artemis program, Department of Defense satellite initiatives, and a rapidly growing commercial launch sector led by companies such as SpaceX, Blue Origin, and Northrop Grumman. The presence of leading suppliers such as GS Yuasa, Saft Groupe (via U.S. subsidiaries), EnerSys, and EaglePicher Technologies further strengthens the industrial base.

In addition to robust R&D infrastructure, North America benefits from qualification facilities, critical mineral supply strategies, and public-private partnerships that reduce supply-chain risk. Europe, under ESA, is investing heavily in solid-state and modular designs, while Asia-Pacific nations (China, India, Japan) are rapidly scaling capacity and indigenous capability. Still, North America remains the hub for both flight heritage and commercialization, ensuring it retains the largest regional market share throughout the forecast horizon.

Demand: Drivers, Limitations, and Opportunities

Market Drivers: Satellite Constellations, Deep-Space Ambitions, and Technology Advances

The space battery market is being propelled by a surge in satellite launches, with low Earth orbit constellations alone projected to grow by more than 50% in 2025. This unprecedented cadence requires fault-tolerant, modular packs with rapid qualification and long-cycle durability. Simultaneously, ambitions for deep-space exploration spanning lunar bases, Mars exploration, and asteroid probes are intensifying demand for chemistries with extended lifetimes, high energy density, and enhanced radiation tolerance.

At the technology level, solid-state batteries and lithium-sulfur systems promise game-changing improvements in safety and weight, while AI-enabled BMS introduce predictive maintenance, digital twins, and real-time thermal control. These advances ensure that space batteries are not merely energy reservoirs but active enablers of mission flexibility and reliability. Together, these drivers underpin a market environment where innovation is a necessity, not an option.

Market Challenges: Qualification Burden, Cost Pressures, and Supply Constraints

Despite strong momentum, the sector faces critical challenges. The qualification burden remains extremely high; every cell, module, and pack must be proven under conditions of vacuum, vibration, radiation, and severe thermal cycling. Incidents of thermal runaway, such as those reported with nickel-hydrogen packs, have reinforced the need for multiple fail-safes, redundancy, and conservative design margins, all of which drive cost and weight.

Economic barriers are equally daunting. Development and qualification campaigns often cost tens of millions of dollars, limiting participation primarily to established aerospace primes and specialty suppliers. On the supply side, the reliance on critical minerals (lithium, cobalt, nickel, and graphite) and separator films exposes programs to price volatility, geopolitical disruptions, and export control regimes such as ITAR and ECSS. These risks not only strain project economics but also create scheduling uncertainties that can ripple through satellite and launch timelines.

Market Opportunities: Private Investment, Hybrid Energy Systems, and Recycling Initiatives

Counterbalancing these constraints are significant opportunities. Private investment is flowing into a new wave of space-energy startups, examples include Zeno Power (radioisotope-assisted systems), Aetherflux (solid-state prototypes), and Pixxel (integrated satellite energy platforms). These firms are pushing boundaries on safety, modularity, and cross-domain integration.

Hybrid energy systems, which combine solar arrays, fuel cells, and advanced batteries, are emerging as powerful enablers for lunar bases, OTVs, and long-duration stations. These systems extend mission profiles and reduce dependency on any single energy source. Meanwhile, recycling and resource-recovery programs are beginning to take shape, with initiatives aimed at extracting lithium, nickel, and cobalt from retired space packs. By aligning with circular-economy goals, these programs reduce costs, improve material security, and enhance the sustainability credentials of the space industry.

Together, these demand drivers, challenges, and opportunities define a market that is both complex and dynamic. Stakeholders who can balance innovation with reliability and cost with qualification rigor will be best positioned to capture long-term growth.

How can this report add value to an organization?

Product/Innovation Strategy: This report clarifies the evolution of space-grade battery chemistries, space today, with rapid progress in solid-state and lithium-sulfur batteries, and dissects how pack architecture, thermal design, abuse tolerance, and AI-enabled BMS are converging to raise safety and lifetime. R&D teams can use these insights to prioritize qualification paths, de-risk material choices, and align module designs to platform-specific constraints in LEO, GEO, and deep space.

Growth/Marketing Strategy: The space battery market has been experiencing steady expansion, fueled by the rising demand for satellite constellations, deep-space missions, and orbital transfer vehicles. Companies are actively forming strategic partnerships with space agencies and commercial launch providers to secure long-term supply contracts and expand their operational footprint. By offering advanced battery systems that emphasize high energy density, modularity, and platform-specific customization, organizations can position themselves to capture demand across multiple mission profiles. Emphasizing technological innovation, such as solid-state and lithium-sulfur chemistries, and demonstrating proven flight heritage will allow suppliers to enhance brand credibility, strengthen customer relationships, and secure a larger share of upcoming satellite and exploration programs.

Competitive Strategy: The report provides a detailed analysis and profiling of key players in the space battery market, including GS Yuasa Corporation, Saft Groupe (TotalEnergies), EnerSys, and EaglePicher Technologies. The analysis highlights their product portfolios, recent technological developments, program participation, and regional market strengths. It thoroughly examines market dynamics and competitive positioning, enabling readers to understand how these companies benchmark against each other and adapt to evolving program requirements. This competitive landscape assessment provides organizations with critical insights to refine their strategies, identify differentiation opportunities in areas such as chemistry innovation and BMS integration, and pursue growth in high-priority regions and platform segments.

Research Methodology

Factors for Data Prediction and Modelling

• The base currency considered for the space battery market analysis is US$. Currencies other than the US$ have been converted to the US$ for all statistical calculations, considering the average conversion rate for that particular year.
• The currency conversion rate has been taken from the historical exchange rate of the Oanda website.
• The information rendered in the space battery market report is a result of in-depth primary interviews, surveys, and secondary analysis.
• Where relevant information was not available, proxy indicators and extrapolation were employed.
• Any economic downturn in the future has not been taken into consideration for the market estimation and forecast.
• Technologies currently used are expected to persist through the forecast with no major technological breakthroughs.

Market Estimation and Forecast

The space battery market research study involves the usage of extensive secondary sources, such as certified publications, articles from recognized authors, white papers, annual reports of companies, directories, and major databases to collect useful and effective information for an extensive, technical, market-oriented, and commercial study of the market.

The market engineering process involves the calculation of the market statistics, market size estimation, market forecast, market crackdown, and data triangulation (the methodology for such quantitative data processes has been explained in further sections). The primary research study has been undertaken to gather information and validate the market numbers for segmentation types and industry trends of the key players in the market.

Primary Research

The primary sources involve industry experts from the space battery market and various stakeholders in the ecosystem. Respondents such as CEOs, vice presidents, marketing directors, and technology and innovation directors have been interviewed to obtain and verify both qualitative and quantitative aspects of this research study.

The key data points taken from primary sources include:

• validation and triangulation of all the numbers and graphs
• validation of reports, segmentations, and key qualitative findings
• understanding the competitive landscape
• validation of the numbers of various markets for the market type
• percentage split of individual markets for geographical analysis

Secondary Research

Space battery market research study involves the usage of extensive secondary research, directories, company websites, and annual reports. It also makes use of databases, such as Hoovers, Bloomberg, Businessweek, and Factiva, to collect useful and effective information for an extensive, technical, market-oriented, and commercial study of the global market. In addition to the data sources, the study has been undertaken with the help of other data sources and websites, such as the Space Foundation, UCS, UNOOSA, etc.

Secondary research was done to obtain crucial information about the industry's value chain, revenue models, the market's monetary chain, the total pool of key players, and the current and potential use cases and applications.

The key data points taken from secondary research include:

• segmentations and percentage shares
• data for market value
• key industry trends of the top players in the market
• qualitative insights into various aspects of the market, key trends, and emerging areas of innovation
• quantitative data for mathematical and statistical calculations

Table of Contents

Executive Summary

Scope and Definition

1 Market: Industry Outlook

• 1.1 Trends: Current and Future Impact Assessment
  • 1.1.1 Solid State Batteries for Improved Safety and Efficiency
  • 1.1.2 Smart Modular Battery Integration and Platform-Specific Customization
  • 1.1.3 Advanced Battery Management Systems (BMS) with AI-Enabled Diagnostics
• 1.2 Supply Chain Overview
  • 1.2.1 Value Chain Analysis
• 1.3 Regulatory Landscape
• 1.4 Research and Development Review
  • 1.4.1 Patent Filing Trend (by Country, and Company)
• 1.5 Stakeholder Analysis
  • 1.5.1 Use Case
    • 1.5.1.1 Case Study - AstroForge and KULR Technology Group
  • 1.5.2 End User and Buying Criteria
• 1.6 Ongoing Trade Policies Analysis
• 1.7 Market Dynamics
  • 1.7.1 Market Drivers
    • 1.7.1.1 Increased Global Satellite Launches
    • 1.7.1.2 Technological Advancements in Lightweight, High-Density Battery Systems
  • 1.7.2 Market Challenges
    • 1.7.2.1 Stringent Safety and Reliability Requirements
    • 1.7.2.2 High Costs of Development and Deployment
  • 1.7.3 Market Opportunities
    • 1.7.3.1 Growing Private Sector Investments in Space Technology
    • 1.7.3.2 Hybrid Grid Energy Storage Systems

2 Application

• 2.1 Application Summary
• 2.2 Space Battery Market (by Application)
  • 2.2.1 Satellites
  • 2.2.2 Deep Space Mission
  • 2.2.3 Orbital Transfer Vehicles
  • 2.2.4 Space Stations
  • 2.2.5 Launch Vehicles

3 Products

• 3.1 Product Summary
• 3.2 Space Battery Market (by Battery Type)
  • 3.2.1 Lithium-Based Battery
  • 3.2.2 Silver-Zinc Battery
  • 3.2.3 Nickel-based Battery
  • 3.2.4 Others
• 3.3 Space Battery Market (by Power)
  • 3.3.1 Less than 1 kW
  • 3.3.2 1-10 kW
  • 3.3.3 11-100kW
  • 3.3.4 Over 100kW

4 Region

• 4.1 Regional Summary
• 4.2 North America
  • 4.2.1 Regional Overview
  • 4.2.2 Driving Factors for Market Growth
  • 4.2.3 Factors Challenging the Market
  • 4.2.4 Application
  • 4.2.5 Product
  • 4.2.6 North America by Country
    • 4.2.6.1 U.S.
      • 4.2.6.1.1 Application
      • 4.2.6.1.2 Product
    • 4.2.6.2 Canada
      • 4.2.6.2.1 Application
      • 4.2.6.2.2 Product
• 4.3 Europe
  • 4.3.1 Regional Overview
  • 4.3.2 Driving Factors for Market Growth
  • 4.3.3 Factors Challenging the Market
  • 4.3.4 Application
  • 4.3.5 Product
  • 4.3.6 Europe by Country
    • 4.3.6.1 Germany
      • 4.3.6.1.1 Application
      • 4.3.6.1.2 Product
    • 4.3.6.2 France
      • 4.3.6.2.1 Application
      • 4.3.6.2.2 Product
    • 4.3.6.3 U.K.
      • 4.3.6.3.1 Application
      • 4.3.6.3.2 Product
    • 4.3.6.4 Italy
      • 4.3.6.4.1 Application
      • 4.3.6.4.2 Product
    • 4.3.6.5 Spain
      • 4.3.6.5.1 Application
      • 4.3.6.5.2 Product
    • 4.3.6.6 Rest-of-Europe
      • 4.3.6.6.1 Application
      • 4.3.6.6.2 Product
• 4.4 Asia-Pacific
  • 4.4.1 Regional Overview
  • 4.4.2 Driving Factors for Market Growth
  • 4.4.3 Factors Challenging the Market
  • 4.4.4 Application
  • 4.4.5 Product
  • 4.4.6 Asia-Pacific by Country
    • 4.4.6.1 China
      • 4.4.6.1.1 Application
      • 4.4.6.1.2 Product
    • 4.4.6.2 Japan
      • 4.4.6.2.1 Application
      • 4.4.6.2.2 Product
    • 4.4.6.3 South Korea
      • 4.4.6.3.1 Application
      • 4.4.6.3.2 Product
    • 4.4.6.4 India
      • 4.4.6.4.1 Application
      • 4.4.6.4.2 Product
    • 4.4.6.5 Rest-of-Asia-Pacific
      • 4.4.6.5.1 Application
      • 4.4.6.5.2 Product
• 4.5 Rest-of-the-World
  • 4.5.1 Regional Overview
  • 4.5.2 Driving Factors for Market Growth
  • 4.5.3 Factors Challenging the Market
  • 4.5.4 Application
  • 4.5.5 Product
  • 4.5.6 Rest-of-the-World by Region
    • 4.5.6.1 Middle East and Africa
      • 4.5.6.1.1 Application
      • 4.5.6.1.2 Product
    • 4.5.6.2 Latin America
      • 4.5.6.2.1 Application
      • 4.5.6.2.2 Product

5 Markets - Competitive Benchmarking & Company Profiles

• 5.1 Next Frontiers
• 5.2 Geographic Assessment
• 5.3 Company Profiles
  • 5.3.1 AAC Clyde Space AB
    • 5.3.1.1 Overview
    • 5.3.1.2 Top Products/Product Portfolio
    • 5.3.1.3 Top Competitors
    • 5.3.1.4 Target Customers
    • 5.3.1.5 Key Personal
    • 5.3.1.6 Analyst View
    • 5.3.1.7 Market Share, 2024
  • 5.3.2 Airbus SE
    • 5.3.2.1 Overview
    • 5.3.2.2 Top Products/Product Portfolio
    • 5.3.2.3 Top Competitors
    • 5.3.2.4 Target Customers
    • 5.3.2.5 Key Personal
    • 5.3.2.6 Analyst View
  • 5.3.3 Berlin Space Technologies GmbH
    • 5.3.3.1 Overview
    • 5.3.3.2 Top Products/Product Portfolio
    • 5.3.3.3 Top Competitors
    • 5.3.3.4 Target Customers
    • 5.3.3.5 Key Personal
    • 5.3.3.6 Analyst View
    • 5.3.3.7 Market Share, 2024
  • 5.3.4 Blue Canyon Technologies LLC (RTX Corporation)
    • 5.3.4.1 Overview
    • 5.3.4.2 Top Products/Product Portfolio
    • 5.3.4.3 Top Competitors
    • 5.3.4.4 Target Customers
    • 5.3.4.5 Key Personal
    • 5.3.4.6 Analyst View
    • 5.3.4.7 Market Share, 2024
  • 5.3.5 Dragonfly Aerospace
    • 5.3.5.1 Overview
    • 5.3.5.2 Top Products/Product Portfolio
    • 5.3.5.3 Top Competitors
    • 5.3.5.4 Target Customers
    • 5.3.5.5 Key Personal
    • 5.3.5.6 Analyst View
    • 5.3.5.7 Market Share, 2024
  • 5.3.6 EaglePicher Technologies, LLC
    • 5.3.6.1 Overview
    • 5.3.6.2 Top Products/Product Portfolio
    • 5.3.6.3 Top Competitors
    • 5.3.6.4 Target Customers
    • 5.3.6.5 Key Personal
    • 5.3.6.6 Analyst View
    • 5.3.6.7 Market Share, 2024
  • 5.3.7 EnerSys
    • 5.3.7.1 Overview
    • 5.3.7.2 Top Products/Product Portfolio
    • 5.3.7.3 Top Competitors
    • 5.3.7.4 Target Customers
    • 5.3.7.5 Key Personal
    • 5.3.7.6 Analyst View
    • 5.3.7.7 Market Share, 2024
  • 5.3.8 GS Yuasa Corporation
    • 5.3.8.1 Overview
    • 5.3.8.2 Top Products/Product Portfolio
    • 5.3.8.3 Top Competitors
    • 5.3.8.4 Target Customers
    • 5.3.8.5 Key Personal
    • 5.3.8.6 Analyst View
    • 5.3.8.7 Market Share, 2024
  • 5.3.9 Ibeos
    • 5.3.9.1 Overview
    • 5.3.9.2 Top Products/Product Portfolio
    • 5.3.9.3 Top Competitors
    • 5.3.9.4 Target Customers
    • 5.3.9.5 Key Personal
    • 5.3.9.6 Analyst View
    • 5.3.9.7 Market Share, 2024
  • 5.3.10 Pumpkin Inc.
    • 5.3.10.1 Overview
    • 5.3.10.2 Top Products/Product Portfolio
    • 5.3.10.3 Top Competitors
    • 5.3.10.4 Target Customers
    • 5.3.10.5 Key Personal
    • 5.3.10.6 Analyst View
    • 5.3.10.7 Market Share, 2024
  • 5.3.11 Saft Groupe SAS (TotalEnergies SE)
    • 5.3.11.1 Overview
    • 5.3.11.2 Top Products/Product Portfolio
    • 5.3.11.3 Top Competitors
    • 5.3.11.4 Target Customers
    • 5.3.11.5 Key Personal
    • 5.3.11.6 Analyst View
    • 5.3.11.7 Market Share, 2024
  • 5.3.12 Space Vector (Fisica Inc.)
    • 5.3.12.1 Overview
    • 5.3.12.2 Top Products/Product Portfolio
    • 5.3.12.3 Top Competitors
    • 5.3.12.4 Target Customers
    • 5.3.12.5 Key Personal
    • 5.3.12.6 Analyst View
    • 5.3.12.7 Market Share, 2024
  • 5.3.13 Suzhou Everlight Space Technology Co., Ltd.
    • 5.3.13.1 Overview
    • 5.3.13.2 Top Products/Product Portfolio
    • 5.3.13.3 Top Competitors
    • 5.3.13.4 Target Customers
    • 5.3.13.5 Key Personal
    • 5.3.13.6 Analyst View
    • 5.3.13.7 Market Share, 2024
  • 5.3.14 Mitsubishi Electric Corporation
    • 5.3.14.1 Overview
    • 5.3.14.2 Top Products/Product Portfolio
    • 5.3.14.3 Top Competitors
    • 5.3.14.4 Target Customers
    • 5.3.14.5 Key Personal
    • 5.3.14.6 Analyst View
    • 5.3.14.7 Market Share, 2024
  • 5.3.15 Kanadevia Corporation
    • 5.3.15.1 Overview
    • 5.3.15.2 Top Products/Product Portfolio
    • 5.3.15.3 Top Competitors
    • 5.3.15.4 Target Customers
    • 5.3.15.5 Key Personal
    • 5.3.15.6 Analyst View
    • 5.3.15.7 Market Share, 2024

6 Research Methodology

• 6.1 Data Sources
  • 6.1.1 Primary Data Sources
  • 6.1.2 Secondary Data Sources
  • 6.1.3 Data Triangulation
• 6.2 Market Estimation and Forecast