In this section, which forms part of my discussion of the relation and interaction between philosophy and science in the twentieth century, I will show that ‘naturalism’ has played a very crucial role. I consider this role a positive one. In fact, probably, naturalism has constituted the closest relation between philosophy and science. By considering the roots of different types of ‘naturalism’, we shall see that the current debates on naturalism have been an inevitable development. Here also I will show (...) that the current debates are inescapable for most philosophers. By considering some of the different versions of naturalism, I will show that the place of ‘naturalism’ in contemporary philosophy of science is a very crucial one. Finally, I will study the Quinean version of “Epistemology Naturalised”. I will argue that Quine’s version of naturalized epistemology is not as radical as is usually thought. I pursue it through a close reading of Quine’s original text. I will reveal some misunderstandings of Quine’s naturalized epistemology by shedding light on some of the relevant concepts including ‘purely descriptive epistemology’, ‘circularity’, ‘natural science’ and ‘normativity’. To do this, I will first illustrate some of the very different views on that in current debates among philosophers (and particularly philosophers of science) and scientists. (shrink)

Continued urbanization, along with anthropogenic global warming, has and will increase land surface temperature and air temperature anomalies in urban areas when compared to their rural surroundings, leading to Urban Heat Islands (UHI). UHI poses environmental and health risks, affecting both psychological and physiological aspects of human health. Thus, using a deep learning approach that considers morphological variables, this study predicts UHI intensity in 69 European cities from 2007 to 2021 and projects UHI impacts for 2050 and 2080. The research (...) employs Artificial Neural Networks, Deep Neural Networks, and Gated Recurrent Units, combining high-resolution 3D urban models with environmental data to analyze UHI trends. The results indicate strong associations between urban form, weather patterns, and UHI intensity, highlighting the need for customized urban planning and policy measures to reduce UHI impacts and foster sustainable urban settings. This research enhances understanding of UHI dynamics and serves as a valuable tool for urban planners and policymakers to address the challenges of climate change, urbanization, and air pollution, ultimately aiding in the improvement of health outcomes and building energy consumption. Moreover, the methodology effectively demonstrates the ability of the GRU to link its scores with UHI projections, offering crucial insights into potential health impacts. (shrink)