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    About

    About

    Bruno Palley's academic journey began with a degree in Civil Engineering from the University of São Paulo (USP) in 2008, followed by the completion of his MBA Program in Business Management at Fundação Getúlio Vargas (FGV) in 2014. These milestones have paved the way for his ongoing pursuit of a Ph.D. in Civil Engineering at the University of Porto Faculty of Engineering (FEUP) since 2022, showcasing his dedication to continuous learning and advancement in his field.

    As a Research Assistant at the Center for Power and Energy Systems at INESC TEC, Palley focuses on energy management in Smart Buildings, leveraging his proficiency in Machine Learning and Data Science techniques. His role involves contributing to cutting-edge research and innovation in this field.

    Palley's credentials also include being recognized as an Expert in Civil Engineering by the Ministério Público Federal (MPF) of Brazil. His previous involvement with the Laboratory of Artificial Intelligence and Computer Science (LIACC) team at FEUP showcases his research acumen, particularly in Data Science, Machine Learning, and Engineering. Additionally, Palley has research experience in case studies of humidity control in buildings, with sensor monitoring and data analysis, in order to achieve efficient solutions to control the humidity and air quality in indoor spaces.  

    With a wealth of practical experience, Palley has worked extensively in auditing, inspection, and management roles within the MPF and prominent construction companies in Brazil. His responsibilities have ranged from overseeing engineering construction projects to coordinating technical areas for developing new construction technologies. Additionally, he has served as an instructor for technical training programs, imparting knowledge to numerous individuals within the industry.

    Bruno Palley's profile reflects a dynamic professional with a solid academic foundation, research expertise, and hands-on experience in Civil Engineering and related fields. He is strongly commitment to excellence and innovation.

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    • Name

      Bruno Palley

    • Role

      Research Assistant

    • Since

      16th February 2024
    001
    Publications
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    2025

    Smart Hygrothermal Ventilation, an Energy-Efficient Solution for Controlling Relative Humidity in Historical Constructions: A Case Study

    Authors
    Palley, B; de Freitas, VP; Abreu, P; Restivo, MT; Freitas, TS;

    Publication
    PROTECTION OF HISTORICAL CONSTRUCTIONS, PROHITECH 2025, VOL 1

    Abstract
    All over the world, there are several unoccupied spaces without adequate constant control mechanisms to reduce and prevent mold and provide good internal conditions and indoor air quality. A widespread way to reduce building humidity is through heating and dehumidification, which are costly to maintain and have high energy consumption. In addition, there are few studies on adjustable hygro ventilation systems, which do not consider the influence of temperature fluctuations. This work describes the operation of a prototype, which fills existing research gaps by considering not only the control of relative humidity (RH) but also the temperature peaks in indoor air conditions, allowing the maintenance of good air quality. The prototype Smart Hygrothermal Ventilation system uses two pairs of sensors related to RH and temperature, one pair placed inside an unoccupied compartment of the building and the other pair in the external environment, in order to activate a fan and the respective speed. The proposed prototype was applied in a compartment located on the ground floor in an unoccupied old rural building in a village near Porto during the winter period. The results show that the system performed adequately for different configurations of its functionalities. Therefore, the system offers an efficient alternative to minimize mold and the fluctuation of internal RH and temperature. Furthermore, it could be a vital mechanism for the conservation of historic buildings.

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