SRN Research Pilot Project funding scheme is an annual, competitive program that supports cross-disciplinary university collaboration in New South Wales and the ACT. The key objective of the SRN Research Pilot Projects is to conduct a rapid feasibility study on new ideas for Space and develop these ideas into concepts or technologies that can attract further investment from the government or industry. Research Pilot Projects should demonstrate high potential to satisfy an existing or emerging Space capability need or an existing or emerging industry need.
It is the intention of the Network to understand industry capabilities and needs in alignment with Australia’s space priorities. The identification of a set of Research Pilot Projects will focus on capability priorities identified in the Australian Civil Space Strategy 2019-2028. These pilot projects will either be in direct response to an existing industry problem or will be framed to target an unmet Space capability. As outlined in the NSW Space Industry Development Strategy, the NSW government has committed $5M to establish a space manufacturing capability in Western Sydney. In line with the commitment of the Federal and NSW Governments to provide funding towards Advanced Manufacturing capability in Space, at least one of the pilot projects will be focused on addressing issues around advanced manufacturing related to the space sector. Other national space priority areas will underpin the remaining Pilot Projects. It is expected that these pilot projects will form the basis of future funding submissions to the ASA, the Australian Research Council (ARC), CRC-P and/or other R&D leveraged funding.
Research Pilot Projects should address an identified need. Priority will be given to projects that align with the Australian Civil Space Strategy Capability Priorities and that are seen to position NSW/ACT researchers and industry to be competitive for further funding.
Application for the SRN Research Pilot Project grant is a one stage process. Proposals should be submitted to email@example.com by the published due date.
All complete applications will be assessed by the SRN Technical Review Panel on a competitive basis relative to the selection criteria:
- Novelty and potential to become world-leading
- Degree of research excellence, making reference to novelty, significance, and ambition
- Identified need in space
- Demonstrates high potential to satisfy an existing or emerging space capability need or a current or emerging space industry need
- Potential for impact and implementation pathway
- Relevance and potential impact for the NSW space sector
- Team track record
- Team’s ability to deliver proposed project, including appropriateness of track record, balance of skills within the project team, and feasibility given requested/available resources
|16 Dec 22||Applications open|
|03 Feb 23||Applications due|
|Feb – Apr 23||Review period|
|8 May 23||Results announced|
Funding Outcomes for Round 1, 2022-23
|ID||Project||Investigator(s)||Lead University||Institutional Partner||Industry Partner||Announced||Award|
|RP220201||Satellite Servicing Docking System with Event-based Cameras.|
Automated satellite docking is a prerequisite for most future on-orbit servicing missions. Whether it is refuelling, diagnostics, de-orbiting or component replacement, the servicing spacecraft must dock to a client satellite before it can perform its mission. This project will focus on developing a novel guidance, navigation and control (GNC) system for satellite docking in a semi-autonomous mode based on event-based cameras. The proposed system will enable low latency, low power consumption, minimum motion blur, high-dynamic range imaging, and the ability to compensate for unpredictable factors in real-time. This system will become a foundation for future semi-autonomous on-orbit servicing applications.
|A/Prof. Teresa Vidal Calleja; Dr. Cedric Le Gentil; Dr. Donald Dansereau; Mikhail Asavkin||University of Technology Sydney||University of Sydney||2/12/2022||$149,443|
|RP220202||Passage Prediction for Mega-Constellation Satellites.|
The advent of mega-constellation in low Earth orbit, e.g., SpaceX’s Starlink internet satellites, has significantly increased the number of close encounters. It is challenging to predict the location of such a satellite, yet the knowledge is pivotal to understanding mega-constellation behaviour and mitigating broader impact on the space environment. This project aims to develop a new prototype daytime, ground-based satellite tracking sensor together with innovative track detection, identification, and prediction methods for the entire Starlink lifecycle. It will bring significant benefits to Space Traffic Management with a statistically more accurate and reliable solution for satellite passage prediction.
|Dr. Yang Yang; Dr. Jose Guivant; Dr. Ahmed Ahmed; Dr. Tayyaba Zafar; Dr. Lee Spitler; A/Prof. Richard McDermid||University of New South Wales||Macquarie University||2/12/2022||$146,439|
|RP220203||Advanced High Temperature Composites for Solid Rocket Motors in Space Launch Vehicles.|
This project aims to develop new carbon fibre composite manufacturing technology for solid rocket motor (SRM) structures capable of enduring the high combustion temperature and pressure experienced in the launch phase of space vehicles. Key strategies are: 1) Investigate using high temperature phenolic resins for manufacturing composite SRM casing and nozzle using automated filament winding process; 2) Develop modified resin formulation (with fillers) for reducing shrinkage after cure; and 3) Characterize the mechanical and thermomechanical properties of resultant composites at both room and high temperature. The out comes are critical for increasing payload capability and high temperature resistance of composite SRM.
|Dr. Jin Zhang; Prof. Chun H. Wang; Dr. Mohammad Saiful Islam; Prof. David Officer||University of New South Wales||University of Wollongong||2/12/2022||$150,000|
|RP220204||Geodesy, Hydroclimate and Space Weather Experiment with Skykraft Satellite Constellation.|
This project is the first Australian scientific satellite mission based on a constellation of small spacecraft. We will demonstrate GNSS-based earth observation technology with the Skykraft micro-satellites originally designed for air traffic management. We will process data from 77 GNSS receivers on the first batch of satellites scheduled to launch in November 2022and recover critical earth observation parameters of atmosphere (electron density, temperature, humidity), land and ocean surface conditions. This is the unique opportunity to leverage from Australian commercial satellites and to expand our capability in space borne sensing to produce our own earth observation datasets valuable to the global community.
|Prof. Shin-Chan Han; Dr. Mehdi Khaki; A/Prof. In-Young Yeo; Prof. Andrew Dempster; Dr. Eamonn Glennon; Prof. Chris Rizos; Dr. Craig Benson; Dr. Eledar Rubinov; Dr. Claire Fisk; Dr. Jia-Urnn Lee; Stephen Belfer; Dr. Simon McClusky||University of Newcastle||University of New South Wales||Skykraft; FrontierSI; Seaskip; Geoscience Australia||2/12/2022||$150,000|