Contents

Space Services and Sustainability

Insights from space news Collection

March, 24 2025 Edition


Trend Analysis

trends

πŸ”Ί Rising:

  • Increasing integration of satellite data into climate monitoring and environmental management frameworks, enabling more precise tracking of emissions, deforestation, and ecosystem changes
  • Growth of specialized satellite missions focusing on specific environmental challenges such as methane detection and advanced weather monitoring
  • Public-private partnerships developing sustainable space practices, with government agencies and commercial operators collaborating on space debris reduction initiatives
  • Regulatory momentum around space sustainability, with new frameworks being developed to assess environmental impacts of satellite operations throughout their lifecycle
  • Adoption of sustainable design principles for satellites, including end-of-life disposal planning and minimizing debris creation during deployment

πŸ”» Declining:

  • Uncontrolled satellite re-entries as operators increasingly implement planned de-orbiting procedures to ensure safer atmospheric return
  • Traditional terrestrial-only environmental monitoring approaches, as space-based observations provide more comprehensive global coverage and real-time data
  • Acceptance of passive debris mitigation measures, with industry shifting toward active debris removal solutions and more proactive sustainability practices
  • Conventional satellite design that lacks consideration for optical brightness and radio-frequency interference affecting astronomical observations
  • Single-use rocket stages, with launch providers developing reusable systems to reduce space debris and lower the environmental impact of accessing space

⚠️ Watch List:

  • Increasing competition for limited orbital resources, particularly in low Earth orbit, requiring more sophisticated traffic management systems
  • Growing impact of large satellite constellations on atmospheric chemistry as satellites re-enter and burn up, potentially affecting the upper atmosphere
  • Quantum technologies that could dramatically improve satellite capabilities for environmental sensing and data processing, though still years from deployment
  • Development of internationally-binding regulations for space sustainability, moving beyond voluntary guidelines to enforceable standards
  • Rising concern about space access inequality as sustainability regulations could potentially create higher barriers for emerging space-faring nations

πŸ§‘β€πŸ’» Expert’s View

The space services sector stands at a pivotal crossroads where innovation must be balanced with environmental responsibility. Recent developments demonstrate a growing recognition that Earth’s orbital environment is a finite resource requiring careful stewardship. Satellite operators are increasingly factoring sustainability into mission design from concept through end-of-life planning, reflecting a maturing industry approach. The surge in Earth observation capabilities is providing unprecedented environmental insights, with satellites becoming essential tools for climate action and sustainable development goals. Nevertheless, the rapid expansion of mega-constellations still poses significant challenges that will require continued technological innovation, regulatory evolution, and international cooperation to address effectively.

⏩ Industry Outlook

Over the next two months, we can expect to see further advancements in satellite-based environmental monitoring capabilities, particularly as GOES-19 completes testing for its Spring 2025 operational deployment. The industry will likely witness increased adoption of space sustainability rating systems, with more operators seeking certification to demonstrate their commitment to responsible practices. Regulatory bodies worldwide will continue refining frameworks for assessing the environmental impact of satellite operations, with potential new guidelines focusing on atmospheric effects of satellite re-entries. Investment in active debris removal technologies will accelerate, with demonstrations like ClearSpace-1 drawing attention to practical solutions. Additionally, emerging satellite services focused on sustainability applications in agriculture, energy efficiency, and resource management will gain traction as demand for environmental intelligence grows across public and private sectors.

πŸ“° Selected News Sources

trends

Space sustainability | Viasat 🌐

Viasat highlights the environmental challenges posed by large low-Earth orbit satellite constellations, including orbital collision risks, atmospheric pollution from rocket exhaust and re-entering satellites, and light pollution affecting astronomy. The company advocates for more responsible space utilization practices as the demand for satellite-based services continues to grow.

Sustainability in Space: The Next Frontier | BSR 🌐

BSR examines how the commercial space industry’s rapid growth creates new business opportunities while simultaneously presenting sustainability challenges both on Earth and in space. The article discusses the reduced cost of launching satellites, methane tracking technologies, and ongoing concerns about space debris, highlighting the need for balance between innovation and environmental responsibility.

Opportunity: Environmental Impact of Satellite Communication | ESA CSC 🌐

The European Space Agency describes its initiative to assess the net environmental impact of satellite communication systems, comparing both geostationary and non-geostationary orbits. The study aims to identify “hot-spots” in the satellite lifecycle with the greatest environmental impact and suggest practical improvements that could be implemented rapidly.

The impact of the new space economy on sustainability: an overview 🌐

This scientific overview analyzes how satellite-based applications contribute to sustainable development goals. The research examines 603 commercial satellite applications developed between 2014 and 2022, finding that SDG3 (Good Health and Well-being) and SDG11 (Sustainable Cities and Communities) are the most impacted by these technologies.

Space sustainability: Building a safer, more responsible and resilient satellite ecosystem | SES 🌐

SES discusses the challenges of managing the rapidly growing number of non-geostationary orbit spacecraft and the increased risk of orbital debris. The company outlines its approach to space sustainability, including its medium Earth orbit post-mission disposal strategy and participation in industry initiatives like the Space Data Association.

Small Satellite Sustainability and the Challenge of Space Debris - NanoAvionics 🌐

NanoAvionics explores how small satellites (smallsats and CubeSats) contribute to sustainability through responsible radio spectrum management and debris mitigation. The article discusses technological innovations that help reduce space debris, including on-board propulsion for collision avoidance and improved space situational awareness.

Space for Green Applications 🌐

ESA Space Solutions has published a report on how satellite applications can support sustainable development across various sectors, including energy, industry, construction, transport, agriculture, biodiversity, and pollution management. The report details upcoming green funding opportunities for organizations interested in developing space-based solutions to environmental challenges.

Environmental sustainability of future proposed space activities 🌐

This scientific paper evaluates the environmental consequences of ambitious space activity plans, assessing the impact of large satellite constellations, space tourism, Moon missions, and other developments from 2022 to 2050. The researchers use Life Cycle Assessment to quantify the potential environmental footprint of these activities.

The path forward for sustainable deep space exploration | World Economic Forum 🌐

The World Economic Forum’s Global Future Council on the Future of Space outlines seven key recommendations for sustainable deep space exploration, including building comprehensive environmental databases, aligning global stakeholders, and implementing public awareness campaigns about environmental stewardship in space.

California launches satellite project to detect and reduce dangerous methane leaks 🌐

California announced a groundbreaking initiative using satellite technology to track and reduce methane pollution. The project employs satellite-mounted methane sensors to locate and monitor large emissions, with one satellite already launched and up to seven more planned, funded by a $100 million investment from the state’s Cap-and-Trade program.

2025 will be a year of slow but steady progress for climate monitoring satellites 🌐

This analysis suggests that while satellite technology for environmental monitoring continues to evolve, 2025 will be more transitional than revolutionary. The article discusses trends including small satellite proliferation, very high-throughput satellites, and specialized missions like NASA-ISRO’s Synthetic Aperture Radar, noting that data integration and infrastructure improvements remain key challenges.

Lockheed Martin outlines top space technology trends for 2025, highlighting how space-based remote sensing systems provide valuable data for weather monitoring and climate intelligence. The company details its work on the GOES-R satellite series and the upcoming GeoXO constellation, as well as AI integration for processing environmental data and displaying global weather conditions.

The Role of Satellites in Environmental Monitoring 🌐

This comprehensive overview explains how satellites have revolutionized environmental monitoring by enabling real-time observation of environmental changes with global coverage. The article details applications in deforestation tracking, disaster response, and climate change mitigation, emphasizing how satellite technology has made monitoring processes more efficient, cost-effective, and reliable.

How Earth observation satellites aid climate change research | World Economic Forum 🌐

The World Economic Forum explores current and upcoming Earth observation technologies, including MethaneSat (launched March 2024) and the Sea and Land Surface Temperature Radiometer systems on ESA’s Sentinel satellites. By 2030, the Earth observation field is expected to contribute over $700 billion to the global economy and reduce annual greenhouse gases by 2Gt.

Advancing application of satellite remote sensing technologies for linking atmospheric and built environment to health 🌐

This research review examines how satellite remote sensing monitoring has overcome traditional environmental monitoring constraints, particularly for air pollution and land cover data. The technology provides crucial information connecting public health, environmental pollution, and the built environment, with applications in urban air quality assessment and health risk studies.

Ushering 2025 from Orbit | NESDIS 🌐

NOAA’s National Environmental Satellite, Data, and Information Service captured breathtaking views of Earth as 2025 began, showcasing the capabilities of satellites like GOES-16, GOES-18, and Himawari-9. These satellites continuously monitor weather patterns, atmospheric conditions, and environmental changes, supporting disaster response and environmental safety worldwide.

Satellite data to monitor disasters and environmental changes | PreventionWeb 🌐

PreventionWeb discusses how satellite data for monitoring environmental changes and disasters has become increasingly accessible through open-access platforms like Landsat, Sentinel, and cloud computing resources such as Google Earth Engine. This democratization enables diverse users to track changes in rivers, coastlines, deforestation, and natural disasters over time.

Environmental Management, Environmental Monitoring | Satellite Imaging Corp 🌐

Satellite Imaging Corporation details how high-resolution satellite imagery facilitates environmental monitoring and assessment across various applications. The company explains that as populations grow and landscapes change, governments increasingly rely on satellite imagery and geospatial data for planning, disaster response, conservation, and natural resource management.

NOAA’s GOES Satellites Can Provide Quicker Detection of Large Methane Emissions | NESDIS 🌐

NOAA has demonstrated that its GOES satellites can detect large methane emissions as often as every seven seconds, representing a significant advancement in monitoring this potent greenhouse gas. The Advanced Baseline Imager on GOES-16, GOES-18, and the newly launched GOES-19 (operational Spring 2025) provides continuous observation capabilities critical for rapid response to methane leaks.

Environmental impact of space debris and how to solve it | World Economic Forum 🌐

The World Economic Forum examines environmental dangers of space debris, including light pollution hindering scientific discovery and potential atmospheric contamination from satellite re-entries. The article proposes five principles for addressing these challenges, including global regulatory frameworks, enforcement mechanisms, and increased investment in data and analytical tools.

ESA Space Environment Report 2024 🌐

The European Space Agency’s annual report reveals that space debris continues to increase rapidly, with approximately 35,000 objects tracked by space surveillance networksβ€”only 9,100 being active payloads. ESA is developing initiatives to combat debris generation, including active debris removal missions like ClearSpace-1, which will remove a defunct rocket part from orbit.

New ITT: Environmental Impact of Satellite Communication – The Clean Space blog 🌐

ESA’s Clean Space Initiative and ARTES-FP program issued an Invitation to Tender to assess the environmental impact of satellite communication services. The study aims to evaluate both direct consequences of satellite production, launch, operations, and disposal, as well as broader effects of providing these services, to inform future system developments and public policy decisions.

Space Sustainability – Satellite Industry Association 🌐

The Satellite Industry Association outlines key sustainability practices for satellite operators, including minimizing intentional debris creation, choosing launch providers with sustainability considerations, implementing security protocols to prevent unauthorized control of spacecraft, and ensuring appropriate end-of-life disposal plans to minimize risks to people and property on Earth.

The world’s first sustainability rating system for space exploration | World Economic Forum 🌐

The World Economic Forum, in collaboration with the European Space Agency, MIT Media Lab, and other partners, launched the Space Sustainability Rating (SSR) to assess and certify space missions based on factors including debris mitigation, orbit selection, collision avoidance measures, and de-orbiting plans. The rating system aims to increase transparency and encourage responsible space practices without disclosing mission-sensitive information.