1.  Executive Summary
1.1  Space Robotics Market Overview
1.2  Market Size, Growth Outlook and Investment Potential, 2026–2035
1.3  Key Government Funding and Program Developments
1.4  Commercialization and Private Investment Trends
1.5  Key Market Drivers and Emerging Opportunities
1.6  Technology and Platform Evolution
1.7  Regional Investment Attractiveness
1.8  Competitive Landscape and Leading Participants
1.9  Key Risks and Strategic Considerations
1.10  Investment Outlook and Strategic Priorities
2.  Global Space Robotics Market Overview
2.1  Market Definition and Scope
2.2  Space Robotics Ecosystem and Value Chain
2.3  Evolution of Space Robotics
2.4  Role of Robotics in Lunar, Planetary and Orbital Missions
2.5  Government versus Commercial Demand
2.6  Market Structure and Business Models
2.7  Key Stakeholders Across the Space Robotics Ecosystem
3.  Space Robotics Market Dynamics
3.1  Market Drivers
3.1.1  Accelerating Lunar Exploration Programs
3.1.2  Growth of Autonomous Exploration and Science Missions
3.1.3  Expansion of On-Orbit Servicing and Satellite Life Extension
3.1.4  Increasing Demand for In-Space Assembly and Infrastructure
3.1.5  Advances in Artificial Intelligence, Autonomy and Teleoperation
3.2  Market Restraints
3.2.1  High Development and Qualification Costs
3.2.2  Mission Failure and Technology Risk
3.2.3  Government Budget and Appropriations Volatility
3.2.4  Launch Availability and Supply Chain Constraints
3.3  Market Opportunities
3.3.1  Lunar Surface Infrastructure and Resource Utilization
3.3.2  Commercial On-Orbit Servicing and Debris Removal
3.3.3  Robotic Construction and In-Space Manufacturing
3.3.4  Humanoid and Astronaut-Assist Robotics
3.4  Market Challenges
3.5  Impact of Market Dynamics on Investment Decisions
4.  Government Programs, Budgets and Policy Landscape
4.1  NASA Space Robotics Funding and Exploration Programs
4.1.1  FY2026 Budget and Exploration Account
4.1.2  Artemis and Moon-to-Mars Robotics
4.1.3  Commercial Lunar Payload Services (CLPS)
4.1.4  Space Technology Programs and Robotics Demonstrations
4.2  European Space Agency Robotics and Exploration Programs
4.2.1  ESA 2026–2028 Ministerial Funding
4.2.2  Human and Robotic Exploration Programs
4.2.3  ExoMars and Planetary Robotics
4.3  China's Space Robotics Programs
4.3.1  Civil Space Budget and Strategic Priorities
4.3.2  Chang'e Lunar Exploration Program
4.3.3  International Lunar Research Station (ILRS)
4.3.4  In-Situ Resource Utilization and Robotic Construction
4.4  Japan's Space Robotics Programs
4.5  India's Space Robotics Programs
4.6  Government Procurement and Commercial Contracting Models
4.7  Policy, Regulatory and Export-Control Environment
5.  Space Robotics Technology Landscape
5.1  Robotic Mobility Systems
5.1.1  Planetary Rovers
5.1.2  Lunar Mobility Platforms
5.1.3  Robotic Landers
5.2  Robotic Arms and Manipulators
5.2.1  Dexterous Manipulation Systems
5.2.2  Single-Arm and Dual-Arm Platforms
5.2.3  Inspection, Grappling and Assembly Capabilities
5.3  On-Orbit Servicing Robotics
5.3.1  Satellite Life Extension
5.3.2  Refueling and Relocation
5.3.3  Debris Capture and Removal
5.4  Humanoid and Astronaut-Assist Systems
5.5  Sample Return Robotics
5.6  Autonomy, AI and Computer Vision
5.7  Teleoperation and Human-Robot Collaboration
5.8  Radiation-Hardened Electronics, Sensors and Actuators
5.9  Reusable and Modular Robotic Architectures
5.10  Technology Readiness and Commercialization Pathways
6.  Space Robotics Market Analysis by Application
6.1  Planetary Rovers and Landers
6.1.1  Lunar Rovers and Landers
6.1.2  Mars Rovers and Landers
6.1.3  Asteroid and Small-Body Exploration
6.2  Robotic Arms and Manipulators
6.3  On-Orbit Servicing Robots
6.4  Humanoid and Astronaut-Assist Systems
6.5  Sample Return Robotics
6.6  Emerging Applications
6.7  Application Attractiveness and Growth Assessment
7.  Space Robotics Technology Cost and Economics Analysis
7.1  Development and Qualification Cost Structure
7.2  Lunar Lander and Rover Mission Economics
7.3  NASA CLPS Task Order Cost Comparison
7.4  Cost Growth and Schedule Slippage Analysis
7.5  Robotic Arm and Servicing Hardware Economics
7.6  Reusable versus Bespoke Platform Economics
7.7  Total Cost of Ownership and Lifecycle Economics
7.8  Cost Reduction Opportunities Through Standardization
8.  Space Robotics Program Investment Analysis
8.1  Government-Funded versus Commercial Investment Models
8.2  Fixed-Price Contracting and Supplier Economics
8.3  Program Backlog, Contract Value and Revenue Visibility
8.4  Platform Reusability and Capital Efficiency
8.5  Commercial Pull-Through Potential
8.6  Investment Case by Robotics Platform
8.7  Priority Investment Themes, 2026–2035
9.  Space Robotics Market Analysis by Program Sponsor
9.1  NASA
9.2  European Space Agency
9.3  China National Space Administration
9.4  JAXA
9.5  ISRO
9.6  DARPA and U.S. Defense Programs
9.7  Commercial Space Companies
9.8  Private and Venture Capital Funding
9.9  Sponsor Attractiveness Comparison
10.  Regional Space Robotics Market Analysis
10.1  North America
10.1.1  United States
10.1.2  Canada
10.2  Europe
10.2.1  Germany
10.2.2  France
10.2.3  Italy
10.2.4  United Kingdom
10.3  Asia-Pacific
10.3.1  China
10.3.2  Japan
10.3.3  India
10.3.4  South Korea
10.4  Other Regions
10.5  Regional Program Attractiveness Analysis
10.6  Regional Investment Opportunities and Constraints
11.  Space Robotics Program Attractiveness Analysis
11.1  Program Attractiveness Assessment Framework
11.2  Government Funding Scale and Stability
11.3  Commercial Launch and Manufacturing Ecosystem
11.4  Robotics Supplier Ecosystem Depth
11.5  Regulatory and Technology Transfer Environment
11.6  Epignosis Space Robotics Program Attractiveness Index
11.7  Regional Ranking and Comparative Assessment
12.  Competitive Landscape
12.1  Competitive Structure and Market Positioning
12.2  Intuitive Machines
12.3  Astrobotic
12.4  Firefly Aerospace
12.5  Northrop Grumman / SpaceLogistics
12.6  GITAI
12.7  Astroscale
12.8  Apptronik
12.9  Other Emerging Space Robotics Companies
12.10  Company Funding, Backlog and Flagship Award Comparison
12.11  Competitive Positioning Matrix
12.12  Strategic Partnerships, M&A and Ecosystem Development
13.  Space Robotics Readiness and Investment Framework
13.1  Epignosis Space Robotics Readiness Framework (ESRF)
13.2  Technical Maturity
13.3  Funding Durability
13.4  Platform Reusability
13.5  Regulatory and Export Alignment
13.6  Commercial Pull-Through
13.7  Program and Supplier Scoring Methodology
13.8  Readiness Ranking and Investment Implications
14.  Space Robotics Market Risk Assessment
14.1  Risk Assessment Methodology
14.2  Budget and Political Risk
14.3  Technical and Mission Failure Risk
14.4  Launch and Schedule Risk
14.5  Supply Chain and Component Risk
14.6  Cybersecurity and Remote Operations Risk
14.7  Regulatory and Orbital Debris Liability Risk
14.8  Risk Assessment Matrix
14.9  Risk Mitigation Strategies
15.  Future Outlook and Strategic Opportunities, 2026–2035
15.1  Near-Term Market Outlook, 2026–2028
15.2  Medium-Term Market Outlook, 2029–2031
15.3  Long-Term Market Outlook, 2032–2035
15.4  Lunar Infrastructure and Resource Utilization Outlook
15.5  On-Orbit Servicing and Orbital Infrastructure Outlook
15.6  Humanoid Robotics and Human-Robot Collaboration Outlook
15.7  Commercialization and Revenue Model Outlook
15.8  Key Investment Opportunities and Strategic Priorities
16.  Research Methodology and Scope
16.1  Research Approach
16.2  Primary and Secondary Sources
16.3  Market Segmentation and Definitions
16.4  Investment and Attractiveness Scoring Methodology
16.5  Risk Assessment Methodology
16.6  Data Limitations and Assumptions
17.  Frequently Asked Questions (FAQs)
17.1  What Is Driving Growth in the Space Robotics Market in 2026?
17.2  How Large Are the Government Budgets Funding Space Robotics?
17.3  Why Have NASA CLPS Lunar Lander Contract Costs Increased Over Time?
17.4  What Role Are Humanoid Robots Expected to Play in Space Robotics?
17.5  Which Region Is Best Positioned for Space Robotics Investment?
18.  Appendix
18.1  Selected Space Robotics Programs and Missions
18.2  Government Budget and Funding Reference Tables
18.3  Company and Program Profiles
18.4  Key Acronyms and Definitions
18.5  Source List and References

Note: This TOC is structured as a full-report framework based on the research description, including its application, program sponsor, regional, cost, investment, competitive, readiness and risk themes.