In recent years, the application of machine learning for virtual sensing has revolutionized the monitoring and management of information. In particular, electrochemical sensors generate large amounts of data, allowing the application of complex machine learning/AI models able to (1) reproduce the measured data and (2) predict and manage faults in the measuring sensor. In this work, data-driven models based on an autoregressive model and an artificial neural network have been identified and used to (i) evaluate sensor redundancy and (ii) predict and manage faults in the context of electrochemical sensors for the measurement of ethanol. The approach shows encouraging results in terms of both performance and sensitivity analyses, allowing for the reconstruction of the values measured by two sensors in a series of six sensors with different dopant levels and to reproduce their values after a fault.

The Earth’s climate is undergoing unprecedented and rapid changes primarily due to human activities, especially greenhouse gas emissions, leading to a temperature rise of 1.1°C to 1.2°C in the last fifty years. In spite of global efforts like the 2015 Paris Agreement which aims to limit the increase in global temperature to 1.5°C above pre-industrial levels, projections indicate that this threshold will likely be exceeded, causing severe climatic disruptions, that will affect vulnerable regions and populations, altering weather patterns and compromising food security, water resources, and economic stability. This study integrates a data-driven downscaling system within an emission control framework aimed at controlling temperature anomalies by reducing CO2 emissions and evaluating its impact on cereal production in North Africa. The approach employs a simplified autoregressive model with exogenous input (ARX) for downscaling. During the validation phase, the ARX models show strong agreement with data, effectively reproducing global temperatures (correlation close to 1 and a normalized mean absolute error around 0.02) and local temperature (correlation of 0.75 and a normalized mean absolute error of 0.2). Moreover, an ARX model is also used to establish links between cereal production, global and regional temperature anomalies and CO2 emissions. This model demonstrates reasonably good agreement with the data, achieving a correlation of 0.72 and a normalized mean absolute error of 0.18. Once validated, the models are integrated into a decision support system based on model predictive control aimed to balance global and regional climate objectives with economic considerations. North Africa is an ideal case study since it is highly susceptible to the impacts of climate change, despite contributing only 1.76% of global carbon emissions in 2022. The region faces significant risks from increased aridity and heat, threatening agriculture, ecosystems, and socio-economic stability. The results of this research highlight the urgent need for environmental and climate-resilient measures to achieve sustainable development and enhance resilience against climate impacts.

Models are a core element in performing local estimation of the climate change input. In this work, a novel approach to perform a fast downscaling of global temperature anomalies on a regional level is presented. The approach is based on a set of data-driven models linking global temperature anomalies and regional and global emissions to regional temperature anomalies. In particular, due to the limited number of available data, a linear autoregressive structure with exogenous input (ARX) has been considered. To demonstrate their relevance to the existing literature and context, the proposed ARX models have been employed to evaluate the impact of temperature anomalies on rice production in a socially, economically, and climatologically fragile area like Southeast Asia. The results show a significant impact on this region, with estimations strongly in accordance with information presented in the literature from different sources and scientific fields. The work represents a first step towards the development of a fast, data-driven, holistic approach to the climate change impact evaluation problem. The proposed ARX data-driven models reveal a novel and feasible way to downscale global temperature anomalies to regional levels, showing their importance in comprehending global temperature anomalies, emissions, and regional climatic conditions.

The relationship between climate change and migration has gained significant attention in recent years, particularly regarding its impact on vulnerable regions. This study proposes a novel modeling approach to climate-induced migration by systematically comparing traditional statistical models and machine learning techniques. While most existing research in this field relies on linear models or case-specific analyses, our work explicitly models complex non-linear and multidimensional relationships among environmental and socio-economic drivers of migration. By comparing autoregressive, polynomial, and logarithmic models with a Random Forest model, we demonstrate the added value of machine learning in capturing complex patterns that conventional models often fail to detect. Furthermore, we analyze how variables such as temperature anomalies, the Human Development Index (HDI), water stress, and the agricultural sector’s contribution to the Gross Domestic Product influence migration. This framework is applied to data-scarce and climate-sensitive regions, namely North Africa, Sub-Saharan Africa, and Southeast Asia, where robust modeling remains both challenging and urgently needed. Model performance was systematically evaluated through multiple metrics, including correlation, Mean Error (ME), Mean Absolute Error (MAE), and their normalized forms (NME and NMAE). Results show that while simpler models exhibit limited explanatory power, the Random Forest model substantially improves predictive accuracy, achieving correlation = 0.81, MAE = 0.95, NME =–0.009, and NMAE = 0.25. These findings demonstrate the model’s effectiveness in capturing migration dynamics, and also provides a replicable methodology that can support targeted adaptation strategies, effective migration management, and climate policies, particularly relevant for data-scarce regions of the Global South.

Climate change mitigation is crucial for the health and sustainability of our planet. This paper presents a novel system utilizing the Model Predictive Control technique (MPC) to optimize greenhouse gas emissions reductions. Through a receding horizon approach, the system dynamically adjusts carbon dioxide, methane, and other greenhouse gases emissions to maintain temperature anomalies within safe limits. The system operates in two phases: first, applying MPC to minimize temperature anomalies by optimizing emissions from 2025 to 2100; second, embedding an artificial neural network trained to capture the relationship between policy decisions and greenhouse gas emissions into an optimization process that identifies the policy set required to achieve a desired emissions pathway. The proposed two-phase approach successfully constrains temperature anomalies near the 1.5°C threshold by 2100, limits mid-century overshoot, and computes optimal emission pathways that can be translated into actionable policy measures. Consequently, the presented tool supports policymakers by providing data-driven, scientifically validated decisions, integrating advanced control strategies and neural network modeling to offer a comprehensive solution for sustainable climate change mitigation.