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The purpose of this study is to design a zero-energy home, which is known to be capable of balancing its own energy production and consumption close to zero. Development of low-energy homes and zero-net energy houses (ZEHs) is vital to move toward energy efficiency and sustainability in the built environment. To achieve zero or low energy targets in homes, it is essential to use the design process that minimizes the need for active mechanical systems.

The methodology discussed in this paper consists of an interfacing building information modeling (BIM) tool and a simulation software to determine the potential influence of phase change materials on designing zero-net energy homes.

BIM plays a key role in advancing methods for architects and designers to communicate through a common software platform, analyze energy performance through all stages of the design and construction process and make decisions for improving energy efficiency in the built environment.

This paper reviews the literature relevant to the role of BIM in helping energy simulation for the performance of residential homes to more advanced levels and in modeling the integrated design process of ZEHs.

The purpose of this study is to implement environmental control systems; information and communication technologies based on user behavior for smart buildings and describe their definitions, technological advances, advantages and modern uses. It also highlights the complexity and difficulty of energy management and comfort via control devices.

This study reviews recent progress in control, information technologies, sensing and optimization in buildings and addresses the automation and environmental control systems of important parameters such as lighting, noise, temperature and humidity. It also explores the technological innovations and methods of management through sensors based on user behavior for the processes of optimization and control.

A proposed prototype has been developed by the combination of user behavior and control systems in buildings, mainly related to thermal comfort and energy use. This study addresses the development of a smart-comfort control system based on users’ behavior.

The main contribution of this study is the goal-driven development of an indoor quality apparatus for environmental monitoring data by using smart sensor systems. It can help users to monitor and control their environmental factors and provides functionalities for assessing comfortable ranges.