### Related Studies  
Virtual AR models that represent subjects of interest have to be sufficiently detailed to attract users or to deliver specific instructions. Photogrammetric modeling has gained attention in applications requiring the creation of photorealistic 3D models. Structure-from-Motion (SfM) photogrammetry was used to capture complex topography and assess volume via an inexpensive, effective, and flexible approach [2] with minimal expensive equipment or specialist expertise [3]. Applications can be found in wood [4; 5], archeology [6], cultural heritage [7], architecture [8], construction [9], and construction progress tracking [10]. For large areas and those with an irregular shape, airborne photogrammetry and modeling has been applied to adapt architectural configurations to the slopes of sites [11] or to assess stone excavation [12]. In another study, a geospatial survey associated with UAV technology [13] was used to assess the percentage of cover and mean height of pine saplings [5]. Photogrammetry can be applied for small regular objects in indoor scenes [14]. In terms of using consumer-grade digital cameras for the low-cost acquisition of 3D data [15], the performance capabilities of today's smartphone cameras enable this, as smartphones are now considered promising devices that can be used to capture imagery. AR applications have been proven to be feasible for varied cases [16; 17; 18; 19; 20] of different scales [21; 22], improving awareness of both the location and its context [23]. It should be noted that the documentation is related to information systems [24] and is part of a communication model [25] for exploration and dissemination [26]. Engagement and learning is of concern [27]. A synchronized first-person view offers the same perspective and enables video conferencing or online meetings across devices or platforms. In terms of remote collaboration, different AR system approaches have been developed to improve communication efficiency by applying gaze visualization platforms for physical tasks [28], 3D gesture and CAD models of mixed reality (MR) for training tasks [29], remote collaboration [30], image- or live-video-based AR collaborations [31], remote diagnosis [32], 360\({}^{\circ}\) video cameras in augmented telecollaboration [33], web-based extended reality (XR) [34], 2D/3D telecollaboration [35], and indoor construction monitoring [36]. Urbanization, land use alteration, and loss of functionality are factors that jeopardize heritage. The definitions and categories of cultural landscapes have been discussed worldwide [37]. Warehouses are recognized as industrial landscapes [38] that affect people, places, and the environment over time [39]. Traditional industrial building types are evidence of vanishing traditions [40]. Warehouses are hardly mentioned as part of the architectural culture unless they take the form of factories [41]. The question of how cultural reuse values have been reproduced remains to be studied. A significant relationship exists between the locations of warehouses and their spatial structure. A GIS-aided process was applied to the selection decision [42]. Significant differences may exist in the spatial scope of warehouse activity, even within the same urban area [43]. The investigation of the relationship between warehouses and their spatial structure enables the comprehension of the former's role in the evolvement of the urban fabric. AR and heritage should be integrated. The architectural adaptation of a unique historical form contributes to its integration into the urban fabric. Industrial and warehouse buildings' heritage should be carefully documented [44]. The overlap of different moments in time stimulates social interaction [45]. While industrial heritages transform our cultural identity from the past to the future [46], heritage forms a link in the creation and renovation of the urban fabric. Visualizing the influence on local development should reconnect the tangible and intangible cultural landscapes of warehouses.