There is currently no known example of this form of development being applied specifically to space debris tracking satellites; however, similar approaches have been successfully implemented in other domains, such as Earth Observation, and could serve as a useful reference.

Prerequisites:

• Institutional & political interest and support for utilising SSA, STM, and Space Weather data, technologies, and applications

• Partnerships with international space weather agencies and networks

• Satellite manufacutring capabilities

• Ground segment capabilities 

• Secure IT infrastructure for data collection, processing, and distribution

• Cybersecurity, data protection, and continuity planning

• Clear regulatory framework for licensing, frequency coordination, export control where applicable

• Coordination with international data-sharing standards and SSA/STM frameworks

Cost:

• Ballpark: USD 10M–150M per satellite + USD 1M–5M/yr (operations)

• Includes: partnership agreements and governance, joint design of spacecraft bus and optical payload, assembly/integration/testing (AIT) and environmental testing, launch and insurance, ground segment for mission ops and data processing, technology transfer and staff training, integration of data into national and international SSA catalogues

Timeframe:

• Overall: 36–84 mo

• Phase: partnership formation & requirements definition (6–12 mo), payload and spacecraft design (12–24 mo), AIV & testing (12–24 mo), launch & commissioning (6–12 mo), initial operations & validation (12–24 mo)

Pros:

• Timeline Efficiency - Eliminates the need to develop new technology or systems from scratch, enabling rapid technology integration.

• Low-risk - as the technology is already demonstrated and used

Considerations:

• Risk of Ineffectiveness - Purchasing a satellite may not enable technology transfer or capacity building and some information will be kept as a black box