
ABOUT US
WHO WE ARE & WHAT WE DO
Net Zero Stack provides a platform approach to high-impact net zero innovation. From groundbreaking research to financing and commercialisation, Net Zero Stack focuses on developing and implementing the latest in sustainable solutions.
OUR PROCESS
Our business process is start-to-finish, allowing us to research, propose and develop the latest sustainable solutions
MULTI-STACK APPROACH
Stacking multiple solutions that complement and support one another is essential for achieving significant impact and economic returns.

1
Skills Stack
INNOVATION
ENGINEERING
DEEP NET ZERO TECHNOLOGY
FINANCIAL MARKETS
2
Tech Stack
FLY-ASH TO GEOPOLYMER
AGRI-SOLAR
WASTE WATER TO HYDROGEN
CARBON FARMING
3
Finance Stack
IMPACT INVESTMENT
PRIVATE EQUITY
VC FUNDING
DEBT FINANCING
COMMITMENT TO SUSTAINABLE GOALS
Our team is 100% committed to aligning our projects with the UN Sustainable Development Goals (SDGs). We measure not only the innovative processes and technological solutions that we deploy, but also the entire supply chain and its wider impact to maximize social, environmental, and governance impacts.
Carbon Capture
At Net Zero Stack, we’re actively working towards advancing carbon capture technologies as part of our commitment to a sustainable, net-zero future. Carbon capture involves capturing carbon dioxide (COâ‚‚) emissions from industrial processes or directly from the air before they enter the atmosphere.
This capability is vital to addressing the emissions that can’t be fully eliminated through energy transition alone. By developing and integrating carbon capture solutions, we aim to help industries reduce their environmental footprint, create pathways for carbon reuse, and build the foundations for a resilient, low-carbon economy.

Advanced Grid Technologies
Australia’s electricity networks face growing challenges from vegetation-related faults, which are a major contributor to distribution outages and bushfire risk. Net Zero Stack is developing capability in grid enhancing technologies that leverage distributed intelligence and edge computing to improve network safety.
We are building expertise in scalable, data-driven approaches that can strengthen network operations, improve public safety, and support Australia’s transition to a more resilient, net-zero energy system.

Water Monitoring
Current laboratory-based techniques for contaminated water diagnosis such as liquid chromatography and microfluidic imaging are slow, data-intensive, and costly. This project integrates microfluidic flow conditioning, an event-based camera, and machine learning processing to enable rapid particle classification and trajectory prediction, delivering a high speed, low memory system for early detection in water and wastewater monitoring.
The project targets two priority contamination classes: microplastics and PFAS-affected water. Microplastic monitoring is validated using calibrated beads and real-world particles, while PFAS screening works indirectly by detecting changes in particle colour or motion providing a rapid early warning capability that complements conventional laboratory analysis.

