Partnership between Climate AI Nordics and Klimatkollen
We are thrilled to share our partnership with Klimatkollen 🌍📈!
Read more on our partner page! Also check out this Swedish text about the partnership.
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Reliable conclusions from remote sensing maps
Event date:
Webinar with Sherrie Wang, MIT. Remote sensing maps are used to estimate regression coefficients relating environmental variables, such as the effect of conservation zones on deforestation. However, the quality of map products varies, and -- because maps are outputs of complex machine learning algorithms that take in a variety of remotely sensed variables as inputs -- errors are difficult to characterize. Thus, population-level estimates from such maps may be biased. We show how a small amount of randomly sampled ground truth data can correct for bias in large-scale remote sensing map products. Applying our method across multiple remote sensing use cases in regression coefficient estimation, we find that it results in estimates that are (1) more reliable than using the map product as if it were 100% accurate and (2) have lower uncertainty than using only the ground truth and ignoring the map product. Paper: https://arxiv.org/abs/2407.13659
Machine learning for Earth system prediction and predictability
Event date:
Webinar with María J. Molina, University of Maryland. Machine learning can be used for Earth system prediction, or to study the uppermost limit of prediction skill theoretically achievable given the system's initial state or other factors, otherwise known as predictability. In traditional numerical weather prediction frameworks, we solve the governing partial differential equations starting from an initial state. This initialized prediction framework usually involves three stages: 1) generating the initial conditions of the Earth system, 2) running the mathematical representation of the system on a computer forward in time, and 3) analyzing the output and converting it into a format that is useful for end users. Machine learning can be used to improve each of these individual stages, or to circumvent the three stage framework altogether, and examples of each will be given in this seminar. More time during the seminar will be dedicated to the challenges surrounding subseasonal prediction, which focuses on lead times of three to four weeks, and how we can use machine learning to both uncover potential biases in our initialized prediction systems and how we can bias-correct them.
Climate AI Nordics Newsletter, February 2025
Published:
Welcome to the Climate Change AI Nordics Newsletter, February 2025! Read about recent and coming seminars, workshops, and the monitoring of Baltic seabirds using AI-powered cameras and microphones.
Featured Project: AI-based seabird monitoring at Stora Karlsö, Sweden
Published:
Read about an exciting project involving both artificial intelligence and an artificial rock shelf!