Scientists at the Swindon-based Science and Technology Facilities Council (STFC) have been granted government funding to develop a first-of-its-kind climate monitoring instrument.
With the UK Space Agency funding, STFC’s RAL Space at Harwell in Oxfordshire will develop a pre-prototype of this new kind of sensor, which will be small enough to fly on board a nano-satellite.
The Hyperspectral Microwave Sounder (HYMS) is set to transform the future of weather forecasting. It has achieved four times greater sensitivity than sounder technology on board the current generation of meteorological satellites, and a hardware footprint 50-fold smaller.
Dr Manju Henry, Senior Systems Engineer and HYMS lead, RAL Space said: “Improving our understanding of the atmosphere’s temperature and moisture is one of the fundamental requirements to forecasting and mitigating the impacts of extreme weather events and climate change.
“We’re excited to have the opportunity to accelerate the development of the HYMS sensor. The sensor could radically improve weather forecasting capability and our understanding of our planet’s climate.
“This project will provide the foundations to launch a constellation of satellites to provide of weather and climate data globally.”
The £600,000 funding will enable RAL Space to carry out rigorous analysis and develop the HYMS instrument, helping take this novel sensor another step closer to launch.
Today, satellites provide more than 90 per cent of the data that goes into weather forecasting models, and microwave sensors play a crucial role.
The HYMS sensor goes leaps and bounds beyond what is currently possible, offering over 1000 sampling channels versus just 24 channels on the current generation of weather satellites. The greater the number of channels means there can be more observations of the atmosphere at different altitudes.
HYMS is also smaller than existing technology, meaning it can be flown in a constellation of multiple small satellites, giving a much more frequent view of the temperature and moisture of the atmosphere. This is difficult to do with large satellites due to the high costs of build and launch.
Frequent observations will help to monitor rapidly developing extreme weather events like hurricanes and flooding, dramatically enhancing global weather forecasting, improving early warning and mitigation systems as well as climate monitoring.