## 1 Introduction  
The current and most urgent challenges facing construction projects are related to cost inefficiency [1], delays in construction time [2], high energy consumption during the operational phase [3], and high environmental impacts [4]. This demands solutions to (i) generate much more efficient processes than the current ones, (ii) improve or propose new constructive solutions, and (iii) develop technologies for the industrialization of housing manufacturing [5]. Industrialized construction (industrialization) is a key proposal for the implementation of technological solutions, as it allows for the automation of construction processes and the improvement of supply chain efficiency. These benefits have been achieved through the adoption of artificial intelligence (AI), collaborative methodologies, such as building information modeling (BIM), and a focus on sustainability, although the implementation of these methods and construction techniques has been progressive at the business level, mainly due to the lack of management in the tools and high initial investment costs [6; 7]. Furthermore, in some cases, the lack of integration of independent systems and professionals with experience in the use of digital tools hinders the efficient adoption of these methodologies [8]. Considering this, industrialized construction demands the proper use of mechanical and digital tools, but continuous improvement in efficiency, product standardization, modularization, and mass production must also be considered [9]. According to [PERSON] et al. (2022), industrialized construction should be approached systematically with research and technical development activities to improve productivity, quality, and project execution times [10]. The strategies that consider these aspects and address the challenges of construction are prefabrication and modular construction (industrialized construction systems). They allow for reduced execution times, waste, and negative environmental impacts, achieving massive and efficient housing construction [11; 12]. However, the implementation of these strategies is mainly in developed countries [13]. The countries leading the research, development, and adoption of these techniques are Germany, Australia, China, the United States, and Japan, among others [14]. However, it is also observed that in some of them (Australia, the United States, and other developing countries), industrialized construction is not popular and faces political challenges, regulatory issues, lack of practical experience with new systems, and low standardization, so there are still significant challenges to overcome [15; 16]. To address these challenges, many countries have developed industrialized construction solutions, mainly based on prefabricated systems [17; 18]. One of the existing systems with a presence in the global market is the Structural Insulated Panel (SIP), made from oriented strand boards (OSBs) and a core of expanded polystyrene (thermal insulation material). This system has a thermal transmittance between 0.40 and 0.55 [W/m\({}^{2}\)K]) and is quick to assemble but has high environmental impacts compared to other traditional wood systems. Additionally, it has been determined that the joints between the boards that make up the constructive elements and the mechanical fixings create thermal bridges that increase energy losses by transmission. In this sense, thermal transmittance in the most unfavorable areas can be up to 60% higher than the core of the system, and the surface temperature in these areas can be up to 3.4 \({}^{\circ}\)C lower [19; 20]. Similarly, there is the Quick House system based on metal profiles for housing construction [21]. It is stated that the system could reduce execution times by up to 60% compared to conventional systems, and it has great versatility, durability, and a warranty (30 years). This system is based on the principle of the prefabrication of elements, uses traditional insulation and cladding materials, and requires cranes for on-site assembly.