
pmid: 27888922
Thermal comfort in open urban areas is very factor based on environmental point of view. Therefore it is need to fulfill demands for suitable thermal comfort during urban planning and design. Thermal comfort can be modeled based on climatic parameters and other factors. The factors are variables and they are changed throughout the year and days. Therefore there is need to establish an algorithm for thermal comfort prediction according to the input variables. The prediction results could be used for planning of time of usage of urban areas. Since it is very nonlinear task, in this investigation was applied soft computing methodology in order to predict the thermal comfort. The main goal was to apply extreme leaning machine (ELM) for forecasting of physiological equivalent temperature (PET) values. Temperature, pressure, wind speed and irradiance were used as inputs. The prediction results are compared with some benchmark models. Based on the results ELM can be used effectively in forecasting of PET.
Temperature, Wind, Environment, Models, Biological, Machine Learning, Humans, Computer Simulation, Thermosensing, Neural Networks, Computer, City Planning, Algorithms
Temperature, Wind, Environment, Models, Biological, Machine Learning, Humans, Computer Simulation, Thermosensing, Neural Networks, Computer, City Planning, Algorithms
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