Technology transfer
Costruiamo strumenti meteorologici EN
Costruiamo strumenti meteorologici (consigliato per la scuola primaria): in seguito vi proponiamo le istruzioni per costruire due strumenti meteorologici: anemometro e pluviometro
Atmospheric Composition Modelling
The expertise in atmospheric numerical modelling acquired by ISAC covers different applications and research fields such as air quality analysis and forecast, diagnostic investigations of the major processes involved in atmospheric transport phenomena, and transformation of pollutants in both the gas and particulate phase.
Planetary Atmospheres
One of the unanswered scientific questions is how the Earth, and more generally the solar system, has formed. To answer this question, we need to understand and study the Earth but also the other planets of the solar system. Recently ISAC, thanks to its competences in the study of the Earth’s atmosphere, has been involved in the study of Titan and Jupiter atmospheres. Titan is one of the moons of Saturn and its study is important because it has an atmosphere very similar to what it is thought the primordial Earth atmosphere looked like.
Satellite Observations
In the last 30 years a large number of satellites, devoted to the observation and monitoring of the Earth atmosphere composition, have been developed. Satellite instruments enable the measurements of atmospheric composition over the whole globe and altitudes, from the boundary layer to the stratosphere.
Composition Modeling
The expertise in atmospheric numerical modelling acquired by ISAC covers different applications and research fields such as air quality analysis and forecast, diagnostic investigations of the major processes involved in atmospheric transport phenomena, and transformation of pollutants in both the gas and particulate phase. Several models are applied and developed at ISAC, encompassing eulerian and lagrangian approaches, from local to global scales. The consolidated meteorological modelling chain (i.e.
Ground Observations
Continuous monitoring of key atmospheric constituents, complemented by intensive observation periods addressing specific knowledge gaps, are necessary to understand how atmospheric composition has changed and is changing in time and space; what are the main sources and processes that are driving these changes, either induced by human activities or linked to natural phenomena, either cause or consequence of climate change.
Atmospheric composition in hotspot areas
Current research on air pollution – climate interactions focuses on particular regions of the planet considered to be the most vulnerable to global change, that are called "hotspots". These areas encompass pollution hotspots with high levels of toxic compounds (PM, NOx, ozone) and climate-warming agents (ozone and black carbon) as well as background regions where positive feedbacks between atmospheric warming and ecosystem lead to an amplification of the climate change.