양산형 BIPV 복합 유닛 패널 및 모니터링 서비스 디자인개발

Abstract

This study develops a 'mass-production BIPV composite unit panel and IoT-based monitoring service that can be mass-produced in the form of factory standard products to improve the economic feasibility of the overall installation work when installing BIPV (Building Integrated Photovoltaic) solar modules Research and development was carried out to monitor and manage possible errors or events at all times. In order to carry out this research purpose, a hypothesis was established as a research question and verified. In the area of product design development, not only the development of the shape design of the product appearance, but also the design and functional parts to improve the usability of the user should be considered in a complex manner. It belongs to items that are difficult to pursue diversity. Although it is attracting attention as photovoltaic power generation and eco-friendly products, there are difficulties in market formation and preoccupation due to low product transport, constructability, aesthetic dissatisfaction, and usability satisfaction. Therefore, we proceeded to develop an external design that can be faithful to the role of the building exterior material, improve product functionality, and improve the ease of installation and management. In addition, design revisions and supplements were reviewed through the developed design satisfaction survey, the results were reflected, and the usability evaluation of the product linkage system was conducted to review the customer's service design satisfaction and requirements together. The research method was developed so that BIPV can be freely applied without compromising the aesthetics of the building, designing the structure of the ventilation path to solve the heat problem inside the BIPV composite unit panel, designing fasteners for easy installation in various installation spaces (roof or wall) In addition, in conjunction with the user experience-based monitoring system, the maintenance convenience is increased by allowing the administrator to accurately determine the presence or absence of a failure and the location of the failure of the BIPV composite unit panel. Through this research and development, we have completed the development of an ioT sensor module capable of detecting individual unit failures, and the demonstration construction and service verification of a user-oriented photovoltaic monitoring system for a user-centered building with IoT data collection notes and communication gateways applied. Through the demonstration of the R&D results, the significance of the established hypothesis was verified by deriving the user's product usage pattern, product problem derivation, and user's requirements in detail and solving the problem.