AI4EIoTs 2021 Abstracts


Area 1 - Artificial Intelligence for Emerging IoT Systems: Open Challenges and Novel Perspectives

Full Papers
Paper Nr: 3
Title:

Machine Learning-aided Automatic Calibration of Smart Thermal Cameras for Health Monitoring Applications

Authors:

Lelio Campanile, Fiammetta Marulli, Michele Mastroianni, Gianfranco Palmiero and Carlo Sanghez

Abstract: In this paper, we introduce a solution aiming to improve the accuracy of the surface temperature detection in an outdoor environment. The temperature sensing subsystem relies on Mobotix thermal camera without the black body, the automatic compensation subsystem relies on Raspberry Pi with Node-RED and TensorFlow 2.x. The final results showed that it is possible to automatically calibrate the camera using machine learning and that it is possible to use thermal imaging cameras even in critical conditions such as outdoors. Future development is to improve performance using computer vision techniques to rule out irrelevant measurements.
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Paper Nr: 5
Title:

Applying Machine Learning to Weather and Pollution Data Analysis for a Better Management of Local Areas: The Case of Napoli, Italy

Authors:

Lelio Campanile, Pasquale Cantiello, Mauro Iacono, Roberta Lotito, Fiammetta Marulli and Michele Mastroianni

Abstract: Local pollution is a problem that affects urban areas and has effects on the quality of life and on health conditions. In order to not develop strict measures and to better manage territories, the national authorities have applied a vast range of predictive models. Actually, the application of machine learning has been studied in the last decades in various cases with various declination to simplify this problem. In this paper, we apply a regression-based analysis technique to a dataset containing official historical local pollution and weather data to look for criteria that allow forecasting critical conditions. The methods was applied to the case study of Napoli, Italy, where the local environmental protection agency manages a set of fixed monitoring stations where both chemical and meteorological data are recorded. The joining of the two raw dataset was overcome by the use of a maximum inclusion strategy as performing the joining action with ”outer” mode. Among the four different regression models applied, namely the Linear Regression Model calculated with Ordinary Least Square (LN-OLS), the Ridge regression Model (Ridge), the Lasso Model (Lasso) and Supervised Nearest Neighbors Regression (KNN), the Ridge regression model was found to better perform with an R2 (Coefficient of Determination) value equal to 0.77 and low value for both MAE (Mean Absolute Error) and MSE (Mean Squared Error), equal to 0.12 and 0.04 respectively.
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Short Papers
Paper Nr: 1
Title:

Apply Machine Learning and Fuzzy Logics to Design an Automated System for Urban Farming

Authors:

Tran H. Du and Van D. Chuong

Abstract: Urban farming is yet a well-known term in recent years. It is also known as an important solution for us, as a whole, to fight with the food supplies, the resources being lost and the burden with speedy growth of population. However, it is not that easy to become a small-holder farmer since it requires basic knowledge of cultivation and most importantly, consumes great deal of effort. The authors of this paper introduce a simple model that applies Machine learning to automate the nutrient blending process as per the inputed plant’s nutrient requirements. The machine is also designed to ‘learn’ the nutrient’s deviation during operation and to suplement that loss as it is described in the first half of the paper. The second half is to apply Fuzzy logics mathematical model in conjunction with the control rules that allows the machine to ‘think’ and to ‘make decision’ for the control outputs to reach meet with the environmental requirements. This model has been testifying for 2 consecutive cultivations. Due to the unreliability of the sensors and devices, it needs more observations and adjustments to get the results and conclusion.

Paper Nr: 2
Title:

The Data Deconflation Problem: Moving from Classical to Emerging Solutions

Authors:

Roger A. Hallman and George Cybenko

Abstract: Data conflation refers to the superposition data produced by diverse processes resulting in complex, combined data objects. We define the data deconflation problem as the challenge of identifying and separating these complex data objects into their individual, constituent objects. Solutions to classical deconflation problems (e.g., the Cocktail Party Problem) use established linear algebra techniques, but it is not clear that those solutions are extendable to broader classes of conflated data objects. This paper surveys both classical and emerging data deconflation problems, as well as presenting an approach towards a general solution utilizing deep reinforcement learning and generative adversarial networks.
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