This call has been published by Spoke 1: University of Pavia. - The available budget for this call was of EUR 1'500'000.00.
Support during collection of Applications and Evaluations is provided by the INF-ACT Foundation.
Artificial intelligence (AI) has now become a no-longer-questionable tool in the study and tracking of emerging microorganisms. One of the main AI applications involves predictive models to analyse demographic, environmental, health, and travel data to predict the spread of emerging microorganisms. AI can be used to trace and reconstruct the contact network of infected patients in order to identify microorganisms' patterns and geographic distribution as well as critical points to implement control measures. However, AI possesses yet unexplored capability involving the combined use of genetic data, deep learning algorithms and advanced computational capabilities. Moreover, other future perspectives concern revealing both complex viral evolutionary dynamics and reservoir-pathogen-host interaction mechanisms aiming to assess potential risks associated with spillover events that could lead to future pandemics.
The project involves the development of several AI models (e.g., deep learning algorithms, support vector machines, neural networks, and decision trees) to analyse cross-sectional omics data in order to characterise critical variables (e.g., genetic markers) in the dynamics of viral evolutions. Consequently, further models will be necessary to search critical variables related to microorganism-host molecular interactions, in addition to possible spillover events (i.e., species jumping). AI models can provide valuable insights into the risk assessment of these events exploiting the deep understanding of genetic, environmental, and zoonotic factors. Critical variables' selection will be performed with advanced techniques in order to detect those that optimise predictive model accuracy. In addition, the ability of AI to analyse big data in real time is crucial for monitoring microorganism populations. Indeed, the continuous tracking and the analysis of fitness parameters would allow AI to promptly identify any deviation from basic models.
Expected Results:
Advanced AI algorithms (e.g., Markov chains, multi-task learning) will be used to predict the viral fitness landscape and explore antigenic evolution considering factors such as replication and recombination rates. Furthermore, those methods will be exploited in outbreak simulations before their emergence using the information available uniquely at the beginning of an outbreak to reveal new variants and/or new recombinant pathogens. AI techniques can be used to develop classification models, such as convolutional neural networks (CNNs), that independently classify pathogens into preset categories based on patterns and motifs found within genetic sequences. It is possible to predict the behavior of these functional motifs within the microorganism's proteins and calculate their impact on the overall proteins stability and three-dimensional structure, using molecular dynamics simulations and structure modeling . Concerning pathogen-host interaction, models based on unsupervised learning can be used to predict the binding specificity of a cellular receptor. However, predicting antibody binding specificity is much more complex and less explored in the literature. This approach can simplify preventive actions and the design of antibodies whose targets are minority variants intercepted before they become prevalent, as well as their use as reagents in routine diagnostics. Finally, AI models can be boost to create pathogenicity prediction mathematical models using patient-specific biological data (e.g., immunocompetent or immunocompromised status) to study targeted therapies for precision medicine.
The call text (in Italian) has been published on the UNIPV website.
Collection of applications started at 12:00 PM on May 24, 2024 and closed at 12:00 PM on June 24, 2024
Evaluations are currently in progress
Proposals are being evaluated on the basis of the following evaluation criteria:
Proposals will be considered admissible for financing if they obtain at least 70 out of 100 points. Evaluation will be carried out by a panel of 3-5 international and highly-qualified scientists, who are not directly involved in the INF-ACT Research Program. Reviewers will sign a declaration to exclude possible conflicts of interest before accessing the scientific proposals to be evaluated.
INF-ACT partner institutions involved: UNIPV
INF-ACT Research Nodes involved: RN1
Tags: Research, Grants, Cascade Open Calls
Last update: 24/05/2024
INF-ACT is a Participated Foundation (Fondazione di Partecipazione)
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Contact e-mail: management@inf-act.it - PEC: inf-act@pec.it
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The INF-ACT Foundation is the Hub of the a project funded under the National Recovery and Resilience Plan (NRRP), Mission 4 Component 2 Investment 1.3 - Call for tender No. 341 of 15 March 2022 of Italian Ministry of University and Research funded by the European Union - NextGenerationEU; Project code PE00000007, Concession Decree No. 1554 of 11 October 2022 adopted by the Italian Ministry of University and Research, Project title "One Health Basic and Translational Actions Addressing Unmet Needs on Emerging Infectious Diseases (INF-ACT)".