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  <front>
    <journal-meta>
      <journal-title-group>
        <journal-title>HD-RTI: An adaptive multi-light imaging approach for the quality assessment of manufactured
surfaces. Computers in Industry</journal-title>
      </journal-title-group>
    </journal-meta>
    <article-meta>
      <title-group>
        <article-title>Digital solutions for cultural heritage: preservation, interpretation, and engagement in line with the Venice charter principles</article-title>
      </title-group>
      <contrib-group>
        <aff id="aff0">
          <label>0</label>
          <institution>Universitat Autònoma de Barcelona</institution>
          ,
          <addr-line>Plaça Cívica, 08193 Bellaterra, Barcelona</addr-line>
        </aff>
      </contrib-group>
      <pub-date>
        <year>2020</year>
      </pub-date>
      <volume>132</volume>
      <issue>103500</issue>
      <fpage>24</fpage>
      <lpage>31</lpage>
      <abstract>
        <p>This paper explores the application of digital technologies in conserving and managing cultural heritage sites, such as 3D laser scanning, VR, AR, GIS, high-resolution imaging, RTI, mobile apps, NLP, and AI. The research critically examines the principles of the Venice Charter considering the 'Venice Charter New Heritage Challenges (2024),' a revised framework that addresses the evolving needs and challenges of the heritage field in the 21st century. Established in 1964, the Venice Charter has long been a guiding document for preserving and interpreting cultural heritage. However, the rapid advancements in digital technologies and new challenges in the heritage field have necessitated a critical re-evaluation of the Charter's principles. The 'Venice Charter New Heritage Challenges (2024)' seeks to revisit these principles, acknowledging the significant shifts in the heritage landscape and the need to adapt to new societal, technological, and environmental concerns. By integrating digital technologies, heritage professionals can innovatively address the revised Venice Charter's core principles. For example, 3D scanning enables the creation of accurate digital representations of heritage structures, which can inform conservation and restoration efforts. VR and AR technologies can provide immersive experiences contextualizing heritage sites' historical and cultural significance, enhancing public understanding and appreciation. GIS, high-resolution imaging, and RTI can aid in the comprehensive mapping, analysis, and documentation of heritage sites, contributing to the Charter's diverse data collection and management principle. Mobile apps offer on-site interpretation and access to digital archives, promoting the Charter's principle of inclusive and accessible public engagement. NLP and AI technologies can support the Charter's research, interpretation, and knowledge dissemination principle. However, it's important to note that using these technologies in cultural heritage preservation is not without challenges and limitations. These may include data privacy and security issues, the need for specialized skills and training, and the potential for digital technologies to overshadow the physical experience of heritage sites. By demonstrating the synergies between digital technologies and the principles of the 'Venice Charter New Heritage Challenges (2024),' while also acknowledging these challenges, this research aims to empower heritage professionals to preserve, interpret, and disseminate cultural heritage in accessible, sustainable, and socially responsive ways, ultimately enhancing the public's engagement with and appreciation of these invaluable resources.</p>
      </abstract>
      <kwd-group>
        <kwd>Digital technologies</kwd>
        <kwd>Cultural heritage</kwd>
        <kwd>Preservation</kwd>
        <kwd>Interpretation</kwd>
        <kwd>Presentation and dissemination</kwd>
        <kwd>1</kwd>
      </kwd-group>
    </article-meta>
  </front>
  <body>
    <sec id="sec-1">
      <title>1. Introduction</title>
      <p>Digital solutions have revolutionized numerous aspects of our lives, including the
preservation, interpretation, and engagement of cultural heritage. As outlined in the Venice</p>
      <p>
        Charter Principles, which provide guidelines for conserving and restoring historic monuments
and sites, digital technologies offer innovative approaches to safeguarding and promoting
cultural heritage for future generations. The Venice Charter, established in 1964 by the
International Council on Monuments and Sites (ICOMOS), emphasizes the importance of
preserving the authenticity and integrity of cultural heritage while ensuring its accessibility and
relevance to contemporary society. It recognizes that cultural heritage is not static but an
evolving entity requiring continuous care and adaptation
        <xref ref-type="bibr" rid="ref2">(Trunfio et al., 2022; Erder, 1977)</xref>
        .
      </p>
      <p>
        Aligned with the Venice Charter Principles, digital solutions for cultural heritage
preservation, interpretation, and engagement aim to maintain the authenticity and integrity of
heritage while embracing technological advancements
        <xref ref-type="bibr" rid="ref3">(Lercari &amp; Jaffke, 2020)</xref>
        . They
complement traditional conservation practices and enable a dynamic and sustainable approach
to cultural heritage management; digital technologies have recently been widely employed to
document and monitor tangible heritage assets
        <xref ref-type="bibr" rid="ref8">(Mishra et al., 2022)</xref>
        . These technologies allow
for the frequent tracking of changes in the form, function, and, at times, the location of heritage
sites. However, it is essential to acknowledge that these tracking processes may involve
subjective interpretations that require ongoing qualification, adjustment, and improvement over
time.
      </p>
      <p>
        Digital solutions provide a powerful toolkit for addressing the challenges posed by cultural
heritage preservation, interpretation, and engagement; they facilitate the documentation,
conservation, and restoration of historic sites and artifacts, allowing experts to capture detailed
and accurate representations of tangible and intangible heritage
        <xref ref-type="bibr" rid="ref11">(Hassan &amp; Fritsch, 2019)</xref>
        .
Highresolution imaging techniques, 3D scanning, and virtual reality technologies create immersive
digital replicas, allowing one to explore and study cultural heritage without risking physical
damage
        <xref ref-type="bibr" rid="ref12">(Kushwaha et al., 2020)</xref>
        . Digital solutions enhance the interpretation and presentation
of cultural heritage, making it more engaging and accessible to a broader audience; through
interactive multimedia platforms, virtual exhibitions, and augmented reality applications,
visitors can experience cultural heritage innovatively. Digital storytelling techniques enable the
contextualization of historical narratives, fostering a deeper understanding of the significance
and value of heritage sites
        <xref ref-type="bibr" rid="ref13">(Martinez et al., 2021)</xref>
        .
      </p>
      <p>
        Importantly, digital solutions promote inclusivity and diversity in cultural heritage
engagement; they break down physical access barriers, enabling individuals unable to visit sites
in person to engage with cultural heritage remotely
        <xref ref-type="bibr" rid="ref14">(Trillo et al., 2020)</xref>
        . Digital platforms offer
opportunities for communities to actively participate in preserving and interpreting their
heritage, empowering them to share their stories and perspectives.
      </p>
      <p>
        Digital technologies provide a cost-effective and low-risk solution for preserving and
promoting cultural heritage assets; the increasing reliability and decreasing IT infrastructure
costs, along with user-friendly information technology solutions, have led to the emergence of
Digital Heritage
        <xref ref-type="bibr" rid="ref15">(Marques et al., 2017)</xref>
        . Museums and art galleries have embraced digitization
through photography and 3D scanning, while collection management systems have been utilized
to store and manage these digital assets. Additionally, applications such as virtual museums,
augmented reality (AR), and virtual reality (VR) have been developed to engage end-users
        <xref ref-type="bibr" rid="ref16">(Haddad et al., 2021)</xref>
        . The widespread adoption of digital heritage has resulted in large
collections of visual assets accompanied by metadata, forming big data repositories. Researchers
        <xref ref-type="bibr" rid="ref22">(Moullou et al., 2023; Nurit et al., 2021)</xref>
        have recognized the potential of leveraging this data to
address various cultural heritage challenges, including metadata retrieval, asset linkage
discovery, and digital curation. Machine learning and semantic web technologies are often
employed to tackle these challenges effectively.
      </p>
      <p>Heritage plays a crucial role in achieving sustainable futures, as acknowledged by Agenda
2030 and the Habitat III UN conference. There has been shift towards a broader understanding
of heritage beyond its material aspects. Heritage has been included as a target in the Sustainable
Development Goal for Sustainable Cities and Communities (SDG 11), highlighting the importance
of protecting and safeguarding cultural and natural heritage (UN, 2020). The built environment,
encompassing tangible and intangible heritage, is intrinsically linked to values such as cultural
diversity, identity, and a sense of belonging; preserving and making these values available to
future generations is vital for intergenerational justice and contributes to community resilience.</p>
      <p>In this era of rapid technological advancements, integrating digital solutions within the
framework of the Venice Charter Principles presents immense potential for the preservation,
interpretation, and engagement with cultural heritage. By harnessing the power of digital
technologies, we can safeguard our shared heritage, foster a deeper appreciation for cultural
diversity, and ensure its relevance and significance for future generations, to leverage
technology to ensure authentic conservation, inclusive interpretation, and meaningful
engagement with cultural heritage while addressing the challenges and opportunities of the 21st
century. The research aims to explore and demonstrate how digital technologies enhance the
conservation, interpretation, and dissemination of cultural heritage sites in alignment with the
principles outlined in the Venice Charter.</p>
      <p>This research has demonstrated the significant potential of integrating digital technologies to
address the core principles outlined in the updated "Venice Charter New Heritage Challenges
(2024)". By critically examining the original Venice Charter, established in 1964, and the revised
framework that aims to acknowledge the evolving needs and challenges of the 21st-century
heritage field, this study has uncovered synergies that can empower heritage professionals to
preserve, interpret, and disseminate cultural heritage in more accessible, sustainable, and
socially responsive ways.</p>
      <p>The research discusses the application of digital technologies, such as 3D laser scanning, VR,
AR, GIS, high-resolution imaging, RTI, mobile apps, NLP, and AI, that help heritage professionals
address the principles and challenges outlined in the "Venice Charter New Heritage Challenges
(2024)".The paper aims to address a gap in the existing literature by critically examining the
principles of the Venice Charter, which has long been a guiding document for cultural heritage
preservation, in the context of the updated "Venice Charter New Heritage Challenges (2024)".
To demonstrate the synergies between the integration of digital technologies and the principles
outlined in the updated Venice Charter. The novelty of this research lies in its holistic approach
to addressing the evolving needs and challenges of the cultural heritage field. By critically
examining the principles of the Venice Charter, considering the "Venice Charter New Heritage
Challenges (2024)," and showcasing the potential of digital technologies to address these
principles, the study provides a comprehensive and innovative framework for heritage
management and conservation in the 21st century.</p>
    </sec>
    <sec id="sec-2">
      <title>2. 3D Laser scanning and modeling</title>
      <p>
        Techniques such as terrestrial laser scanning and UAV photogrammetry have revolutionized
data collection, offering efficient and accurate methods for creating detailed 3D models; 3D
modeling and laser scanning technologies are invaluable in documenting and preserving cultural
heritage. Laser scanners are known for their wide field of view and precise data capture
capabilities from minor artifacts to large architectural structures; these technologies enhance
immersive experiences, support research and conservation efforts, and provide permanent
documentation of significant objects and locations
        <xref ref-type="bibr" rid="ref12">(Kushwaha et al., 2020)</xref>
        . Laser scanning has
become an indispensable tool in numerous cultural heritage projects, ensuring the preservation
of our heritage for future generations.
      </p>
      <p>
        Laser scanning has been used in heritage conservation, showcasing many notable applications
such as the Notre Dame Cathedral in Paris
        <xref ref-type="bibr" rid="ref17">(Ali et al., 2019)</xref>
        , the Opera House Theater in Rhode
Island
        <xref ref-type="bibr" rid="ref16">(Haddad et al., 2021)</xref>
        , the Royal Palace in Madrid
        <xref ref-type="bibr" rid="ref12">(Kushwaha et al., 2020)</xref>
        , and the Statue
of Liberty in New York City
        <xref ref-type="bibr" rid="ref15">(Marques et al., 2017)</xref>
        . Laser scanning enables the digital
reconstruction of sculptures, architectural pieces, and artworks, facilitating the production of
molds and duplicates for outdoor cultural heritage artifacts that require preservation
        <xref ref-type="bibr" rid="ref11">(Hassan &amp;
Fritsch, 2019)</xref>
        . Laser scanning technology effectively creates replicas; laser scanners measure
distances without physical contact, they are well-suited for monument documentation, as they
have no adverse impact on the original structure
        <xref ref-type="bibr" rid="ref22">(Moullou et al., 2023)</xref>
        .
      </p>
      <p>
        Architectural documentation is critical in preserving built heritage by supporting conservation
efforts; traditional physical documentation methods are susceptible to fragmentation and loss
over time. By incorporating digital technologies, such as 3D parametric modeling, the
documentation of built heritage can be enhanced, and many projects use laser scanning
Technology. Ababneh et al. (2022) used laser scanning to scan the Gadara Tunnel in Jordan; it
has suffered from deterioration and damage over time, posing a significant threat to tourists.
The study utilized LiDAR to generate highly accurate 3D models of the tunnel; the analysis
established the aqueduct's structural integrity and identified the most threatening areas.
The Royal Academy of Engineering (RAEng) Jordan is a collaborative research endeavor that
aims to develop a comprehensive collection of virtual models, including 3D models and Building
Information Modeling (BIM) objects; it aims to establish a library of 3D models showcasing
exemplary Jordanian heritage and traditional buildings. These models promote Jordan's tourism
image
        <xref ref-type="bibr" rid="ref14">(Trillo et al., 2020)</xref>
        .
      </p>
      <p>
        Current international research focuses on creating BIM libraries for built heritage based on laser
scanning data, with a key challenge being the modeling of complex or unique shapes that
represent specific construction components of each asset. This approach generates parametric
families of architectural geometry to effectively manage and represent heritage buildings
        <xref ref-type="bibr" rid="ref26">(Aburamadan et al., 2022)</xref>
        . The primary platform of the Herit-IT Jordan project, along with its
associated library, offers a range of digital outcomes related to the Jordanian House of Art in
Amman and Qaqish House in As-Salt, which serve as pilot heritage buildings. These outcomes
include virtual tours, point clouds, Heritage Building Information Modeling (H-BIM) models of
the buildings, and H-BIM families of architectural features. A multi-level workflow was applied
to develop an HBIM library for the vaulted systems of Palazzo Magio Grasselli in Italy, integrating
different data types and software tools while exporting the models into the GIS environment
        <xref ref-type="bibr" rid="ref26">(Aburamadan et al., 2022)</xref>
        .
      </p>
      <p>The original Venice Charter emphasized fundamental principles such as authenticity, minimal
intervention, and the importance of preserving heritage sites' historical and cultural context. The
updated "Venice Charter New Heritage Challenges (2024)" builds upon these tenets, while also
acknowledging the need to adapt to new realities, including the growing role of technology, the
imperative of environmental sustainability, and the drive for greater inclusivity and public
engagement.</p>
      <p>
        The application of digital technologies has been shown to support these evolving principles
directly. 3D laser scanning, for instance, enables the creation of high-fidelity digital
representations that can aid in conservation and restoration efforts while preserving the
authenticity of the original structure. Virtual and augmented reality experiences, in turn, allow
visitors to engage with heritage sites in immersive and contextual ways, strengthening their
understanding and appreciation of the historical and cultural significance. Furthermore, using
GIS, high-resolution imaging, and RTI technologies facilitates the comprehensive documentation
and mapping of heritage resources, supporting the Charter's emphasis on holistic conservation.
The Aerial Photographic Archive for Archaeology in the Middle East (APAAME) project
successfully conducted comprehensive 3D documentation of the extensive archaeological site of
Ajloun Castle. By utilizing dense 3D point clouds, the project achieved high geometric accuracy
and photorealistic representation, effectively meeting surveying and archaeological
requirements. The resulting 3D digital model of Ajloun Castle seamlessly integrated as a building
layer within Google Earth
        <xref ref-type="bibr" rid="ref23">(Al-Fugara et al., 2016)</xref>
        .
      </p>
    </sec>
    <sec id="sec-3">
      <title>3. Virtual reality (VR) and Augmented reality (AR) Technologies</title>
      <p>
        VR and AR technologies have revolutionized how we engage with and experience cultural
heritage. VR allows users to immerse themselves in digital environments, allowing remote
exploration of historical sites and artifacts; AR, on the other hand, overlays virtual elements in
the real world, offering additional information and interactive features to enhance visitor
experiences
        <xref ref-type="bibr" rid="ref15">(Marques et al., 2017)</xref>
        . These technologies have wide-ranging applications in
preservation, education, and storytelling, making cultural heritage more accessible and fostering
a deeper connection with history and culture. AR has gained popularity in museums and cultural
sites, where it provides augmented reality guides and experiences.
      </p>
      <p>
        Initially, virtual reality (VR) applications in educational settings for cultural heritage utilized
gamification as a learning technique. Today, educational proposals incorporate heritage-focused
games, including pre-existing video games like Assassin's Creed and its educational versions, as
well as Class craft and Minecraft Education Edition
        <xref ref-type="bibr" rid="ref19">(Andrea et al., 2021)</xref>
        . In heritage education,
there is a notable rise in the use of geolocation-based applications, augmented reality (AR), and
virtual reality (VR)
        <xref ref-type="bibr" rid="ref31">(Bozzelli et al., 2019)</xref>
        . Specific digital platforms, virtual museums, and even
in situ experiences utilizing GPS and QR codes enable these possibilities
        <xref ref-type="bibr" rid="ref30">(Arias-Espinoza et al.,
2018)</xref>
        .
      </p>
      <p>
        Other devices like Virtual reality glasses or VR goggles as Smart Glass or similar visors can be
utilized to enhance the immersive experience. Currently, advancements in technology such as 3D
and 360° imagery, GPS, GoPro cameras, drones, and photogrammetry are revolutionizing
education in heritage
        <xref ref-type="bibr" rid="ref28 ref29">(Maietti et al., 2020; Maietti et al., 2018)</xref>
        . These technological
developments are reshaping our interaction with cultural assets, expanding knowledge,
improving understanding, increasing global accessibility, and introducing new approaches and
methodologies for engaging with heritage.
      </p>
      <p>
        A notable example is the Olympia archaeological site in Greece, where the Archeoguide
outdoor AR system brings archeological monuments, artifacts, and elements from the ancient
world back to life. Another example is the old town of Chania in Crete, Greece, where mobile
augmented reality can virtually restore destroyed parts of ancient monuments such as the Glass
Mosque, the Saint Rocco temple, and the Byzantine Wall
        <xref ref-type="bibr" rid="ref17">(Ali &amp; Hamed, 2019)</xref>
        . In some cases,
complete physical restoration and reconstruction may be unattainable, while others face risks to
their historical value due to current conditions
        <xref ref-type="bibr" rid="ref24">(Malinverni et al., 2019)</xref>
        . The 'The Ara It Was'
project at the Pacis Museum in Rome explores the impact of AR and VR on visitor experience,
satisfaction, and service model innovation in cultural heritage museums (Trunkio et al., 2022).
      </p>
      <p>
        AR technology provides an immersive and guided experience of the palace, Qasr al-Abd, at
Iraq al-Amir, Jordan. Visitors use handheld or wearable devices to access an AR app that guides
them to the palace and provides audio information. At the same time, a virtual avatar enriches
their experience with historical narratives about the site
        <xref ref-type="bibr" rid="ref17">(Ali &amp; Hamed, 2019)</xref>
        .
      </p>
      <p>
        The creation of 3D cultural heritage archives requires solutions for interoperability between
models within the archive and external sources. AR applications enhance the tourist experience
at heritage sites, incorporating information into the natural environment through device displays
(e.g. Virtual Time Travel) or audio guides (e.g. museum audio guides)
        <xref ref-type="bibr" rid="ref25">(Longo, 2017)</xref>
        . Virtual or
Augmented Heritage and 3D GIS Cultural Heritage are emerging kields that utilize information
technology to digitally capture and represent various forms of cultural data, including 3D objects
such as artworks, buildings, and entire landscapes
        <xref ref-type="bibr" rid="ref28">(Maietti et al., 2020)</xref>
        . The cultural heritage
community has transitioned from static 2D documentation to interactive 3D digital tools,
incorporating the dimension of time (4D); this transformation has accelerated the adoption of
virtual heritage, as it offers signikicant advantages over traditional methods, the widespread
acceptance of new technologies in the cultural heritage kield indicates their superior capabilities
and potential for dissemination
        <xref ref-type="bibr" rid="ref15">(Marques et al., 2017)</xref>
        .
      </p>
      <p>
        Projects like Inception demonstrate the integration of 3D representations into a European
cultural heritage database, promoting heritage comprehension through innovative devices and
methodologies. Educational innovation projects like Form apps focus on enhancing digital
competence through virtual spaces, networks, and devices
        <xref ref-type="bibr" rid="ref22">(Moullou et al., 2023)</xref>
        . The Baética
project fosters learning communities by conducting multidisciplinary research on archaeological
sites, resulting in virtual hypotheses and 3D digitalizations of monuments
        <xref ref-type="bibr" rid="ref25">(Longo, 2017)</xref>
        . The
SmartMarca project from Italy aims to transmit AR and VR content on cultural heritage to provide
students with interactive learning methods and content creation opportunities
        <xref ref-type="bibr" rid="ref24">(Malinverni et al.,
2019)</xref>
        .
      </p>
      <p>
        The heritage project also aims to improve the level of understanding of Mediterranean
UNESCO cultural heritage by using augmented reality (AR), virtual reality (VR), and mixed reality
(MR). Immersive technologies, such as Emily Gal, Virgo, and Smart Coolture resources, offer
virtual exploration, cataloging, and exhibition creation to promote and preserve heritage while
increasing accessibility
        <xref ref-type="bibr" rid="ref28">(Maietti et al., 2020)</xref>
        .
      </p>
      <p>
        The ArkaeVision project utilizes VR and AR technologies to enhance the exploration of
cultural assets, incorporating digital kiction, storytelling, and gamikication to boost engagement
and understanding
        <xref ref-type="bibr" rid="ref32">(Pietroni et al., 2023)</xref>
        . The e-Archeo project focuses on multimedia solutions
to enhance knowledge of Italian archaeological sites, providing integrated and multi-channel
experiences using scientikic, narrative, and emotional languages
        <xref ref-type="bibr" rid="ref31">(Bozzelli et al., 2019)</xref>
        .
      </p>
      <p>Augmented reality (AR) and augmented reality (AR) technologies technology allow the virtual
restoration and reconstruction of ancient structures in their original settings; by overlaying 3D
models of historical buildings onto their existing ruins, visitors can visually experience and
visualize the appearance of these structures in their ancient state.</p>
    </sec>
    <sec id="sec-4">
      <title>4. Geographic Information System (GIS) mapping</title>
      <p>Geographic Information System (GIS) mapping combines geographic and attribute data to
analyze and visualize spatial information. In cultural heritage, GIS mapping aids in documenting,
managing, and preserving heritage sites, allowing for inventory creation, significance analysis,
vulnerability assessment, and conservation planning. It also integrates cultural heritage data
with other geographic information, enabling a holistic approach to heritage management within
the broader environmental context.</p>
      <p>
        The Geographic Information System (GIS) is tool that captures, analyzes, manages, stores, and
presents spatial or geographical data. It allows for creating detailed maps and analyzing various
data types within a geographic context. GIS plays a significant role in archaeology by enabling
researchers to manage, analyze, and visualize spatial data related to past human activities and
landscapes. Archaeologists utilize GIS to map excavation sites, record the distribution of artifacts,
and analyze the topography of ancient settlements
        <xref ref-type="bibr" rid="ref22">(Moullou et al., 2023)</xref>
        .
      </p>
      <p>
        The Digital Archaeological Atlas of the Holy Land (DAAHL) is a comprehensive database of
archaeological sites and project metadata from the Levant region, aiming to create the first
online digital atlas for the Holy Land. Part of the more extensive Mediterranean Archaeological
Network (MedArch-Net) project, DAAHL contributes to the preservation and dissemination of
archaeological knowledge in the region
        <xref ref-type="bibr" rid="ref14">(Trillo et al., 2020)</xref>
        .
      </p>
      <p>
        In the past two decades, architectural laser scanners have emerged as powerful tools for
capturing highly detailed information from the surrounding environment. These scanners can
capture millions of points, which are then used to generate a point cloud, providing accurate site
documentation. This computer-controlled method can be combined with GNSS (Global
Navigation Satellite System) and unmanned aerial vehicle (UAV) photogrammetry techniques to
produce comprehensive 3D models of the site
        <xref ref-type="bibr" rid="ref22">(Moullou et al., 2023)</xref>
        .
      </p>
      <p>
        The Aerial Photographic Archive for Archaeology in the Middle East (APAAME) is an openly
accessible archive on Flickr. It is part of a long-term research project focused on discovering,
recording, and monitoring archaeological settlements in the Near East, with a particular
emphasis on Jordan; it conducts annual helicopter missions to capture high-resolution aerial
images of ancient settlements and landscapes. The photographs are georeferenced or geolocated,
providing precise spatial information for research and analysis
        <xref ref-type="bibr" rid="ref14">(Trillo et al., 2020)</xref>
        .
      </p>
      <p>By integrating different data sources like satellite imagery, historical maps, and kield surveys,
GIS helps archaeologists identify patterns, locate potential excavation sites, and gain insight into
the historical context of events, for a critical perspective on using GIS, mapping, and spatial
thinking in archaeology.</p>
    </sec>
    <sec id="sec-5">
      <title>5. High-Resolution Imaging and Reflectance Transformation Imaging (RTI)</title>
      <p>
        RTI is a flexible and non-contact imaging technique that captures surface texture information
for subjects of various sizes using a portable toolkit. It involves moving a light source around the
subject while the camera remains stationary, recording the light's position in each image. This
method provides valuable surface texture details. Additionally, combining sensors operating in
the visible and shortwave infrared spectrum, multispectral imaging can analyze construction
materials and identify pathologies in cultural heritage elements, offering spatial and spectral
information
        <xref ref-type="bibr" rid="ref35">(Del Pozo et al., 2017)</xref>
        .
      </p>
      <p>
        RTI is used as a method of digital preservation for many projects worked antler from Star
Carr, in north-east Yorkshire; project Daytime survey of prehistoric rock art at Roughting Linn,
Northumberland, and project Extreme RTI at Ughtasar rock art site, Armenia
        <xref ref-type="bibr" rid="ref33">(Duffy et al., 2018)</xref>
        .
The AHRC RTISAD project has developed and tested various techniques for collecting and
processing reflectance transformation imaging (RTI) data
        <xref ref-type="bibr" rid="ref34">(Earl et al., 2011)</xref>
        . The developed
method, HD-RTI, combines RTI and HDR imaging techniques adaptively to enhance the relighting
quality and characterization of local angular reflectance. The application of HD-RTI to industrial
samples with heterogeneous surfaces demonstrates improved visual saliency maps and
robustness for visual quality assessment tasks, particularly for glossy and heterogeneous
surfaces. This digitization approach aligns with the principles of Industry 4.0 and enables
comprehensive characterization of surface visual properties (Nurit et al., 2021).
      </p>
      <p>
        The archaeological site of Stobi, situated near Gradsko in the Former Yugoslav Republic of
Macedonia (FYROM), served as a case study to showcase the synergistic effectiveness of
Reflectance Transformation Imaging (RTI), photogrammetry, and virtual tour imaging. A diverse
selection of nine inscription sets from the site were specifically chosen to exemplify the broad
range of applications for these combined techniques
        <xref ref-type="bibr" rid="ref25">(Longo, 2017)</xref>
        .
      </p>
      <p>Infrared (IR) photographic documentation, while advantageous, has limitations. However,
retrospective photogrammetry offers an alternative approach by utilizing historical
photographs or images to extract 3D geometric and geospatial information from the past. This
technique involves analyzing old photographs and using them to reconstruct the
threedimensional geometry of depicted scenes or objects. It entails identifying reference points or
features in the photographs and employing software and mathematical algorithms to
reconstruct spatial information. Retrospective photogrammetry finds applications in historic
preservation, archaeology, and urban planning, enabling the understanding of changes over time
and the creation of accurate 3D models or maps of historical sites or structures.</p>
      <p>High-resolution imaging, multispectral imaging, and RTI are advanced techniques used in
cultural heritage documentation and analysis, enabling detailed artifact study, revealing hidden
features, and creating interactive digital representations. These non-invasive methods
contribute to research, conservation, and public access to cultural heritage.</p>
    </sec>
    <sec id="sec-6">
      <title>6. Natural Language Processing (NLP) and Artificial Intelligence (AI)</title>
      <p>AI technologies, including computer vision and NLP, enhance visitor experiences through
interactive platforms like chatbots, providing instant information and personalized
recommendations based on visitor preferences. AI algorithms extract insights from diverse data
sources, supporting decision-making for cultural institutions.</p>
      <p>
        AI has revolutionized cultural heritage by advancing documentation, preservation, and public
engagement; through machine learning and computer vision, AI excels in digital preservation,
restoring and enhancing visual quality; it also aids in artifact analysis by recognizing patterns,
styles, and materials
        <xref ref-type="bibr" rid="ref8">(Mishra et al., 2022)</xref>
        . NLP is crucial for analyzing textual data, enabling
digitization, and facilitating sentiment analysis and semantic search; NLP promotes
crosscultural understanding through language translation, analyzing and understanding textual data
in cultural heritage
        <xref ref-type="bibr" rid="ref18">(Belhi et al., 2019)</xref>
        , enabling digitization through techniques like OCR and
handwriting recognition while facilitating analysis of large text corpora
        <xref ref-type="bibr" rid="ref19">(Andrea et al., 2021)</xref>
        ,
sentiment analysis
        <xref ref-type="bibr" rid="ref21">(Shubita &amp; Saleh, 2020)</xref>
        , and semantic search
        <xref ref-type="bibr" rid="ref20">(Dou et al., 2018)</xref>
        , ultimately
enhancing the accessibility and discovery of cultural heritage content.
      </p>
      <p>
        NLP and AI techniques have empowered heritage professionals to preserve, interpret, and
share cultural heritage in a more accessible and engaging manner. Projects like the one led by
DISI at the University of Trento and the CNR-IMATI's work within the GRAVITATE project
demonstrate the use of AI in analyzing the emotional impact of artworks and automating the
assembly of fragmented artifacts; these advancements enhance understanding, visitor
experiences, and archaeological analysis
        <xref ref-type="bibr" rid="ref19">(Andrea et al., 2021)</xref>
        .
      </p>
      <p>
        Deep learning, a powerful machine learning technique based on neural networks, has
revolutionized computer vision and cultural applications. Recent advancements in computing
hardware and algorithms have significantly improved its performance; convolutional neural
networks like AlexNet have achieved high accuracy in tasks like image classification. Deep
learning enables cultural data classification, annotation, and curation using visual features, while
language processing techniques extract metadata from textual descriptions; it also aids the
automatic population of ontologies for preserving and exchanging digital representations of
cultural assets
        <xref ref-type="bibr" rid="ref28">(Maietti et al., 2020)</xref>
        .
      </p>
      <p>
        The CEPROQHA team has leveraged deep learning to enhance cultural heritage analysis and
preservation, developing annotation and classification approaches demonstrating excellent
performance; their frameworks have been validated on diverse datasets from prestigious
institutions
        <xref ref-type="bibr" rid="ref18">(Belhi et al., 2019)</xref>
        .
      </p>
      <p>
        Deep learning techniques in cultural heritage rely on large and well-structured datasets;
institutions collaborate with data scientists to publish benchmark datasets and tackle
dataoriented challenges
        <xref ref-type="bibr" rid="ref20">(Dou et al., 2018)</xref>
        . Open data sources like WikiArt and museum collections
provide valuable resources. Convolutional neural networks (CNNs) are effective in visual
classification, but incorporating additional information, such as textual data, improves accuracy;
multimodal classification approach combining visual and textual data outperforms traditional
approaches using only visual input
        <xref ref-type="bibr" rid="ref18">(Belhi et al., 2019)</xref>
        .
      </p>
      <p>
        Machine learning (ML) has seen widespread application in various fields, including
archaeology; ML algorithms simulate human learning processes by analyzing data and making
predictions. In archaeology, ML techniques have created training datasets for Dutch Named
Entity Recognition (NER), semantic search in excavation reports, and automatic annotation of
heritage and archaeological concepts. Cloud-based tools have been developed to process textual
archaeological records and generate semantic metadata. ML has proven to be a valuable tool for
archaeologists, enabling more efficient analysis and understanding of archaeological data
        <xref ref-type="bibr" rid="ref22">(Moullou et al., 2023)</xref>
        .
      </p>
      <p>
        Machine learning (ML) has been widely employed in archaeology, focusing on image analysis
and object recognition. ML techniques, such as deep neural networks, have been utilized to
extract structural elements of buildings and detect ancient rock carvings; neural networks have
also extracted architectural features from images and pottery sherds from drone-acquired
imagery
        <xref ref-type="bibr" rid="ref18">(Belhi et al., 2019)</xref>
        . ML uses a Random Forest algorithm to automatically detect
shipwrecks and segment petroglyphs from 3D digitized rock surfaces; the availability of
largescale LIDAR, satellite, and aerial images has transformed archaeology, particularly in mapping
and site searching. ML techniques offer promising archaeological research and exploration
advancements, enabling efkicient site searches in various locations
        <xref ref-type="bibr" rid="ref22">(Moullou et al., 2023)</xref>
        .
      </p>
      <p>
        Digital preservation, as the UNESCO Charter outlines, utilizes digital technologies (DTech) to
record, preserve, and provide access to historic buildings and sites' cultural and historical
signikicance. It involves non-destructive methods like 3D scanning and modeling, virtual reality
(VR), and visualization to document architectural heritage accurately
        <xref ref-type="bibr" rid="ref27">(Li et al., 2023)</xref>
        . Digital
preservation is characterized by non-destructiveness, convenience, and the maintenance of
authenticity; these methods enable real-time data sharing, non-destructive restoration, and the
preservation of architectural heritage's authenticity
        <xref ref-type="bibr" rid="ref19">(Andrea et al., 2021)</xref>
        . Digital technologies
also play a crucial role in protecting architectural heritage from disasters and climate change
events, aligning with the United Nations' Sustainable Development Goals (SDGs)
        <xref ref-type="bibr" rid="ref22">(Moullou et al.,
2023)</xref>
        . Laser scanning, drones, digital photography, GIS, and AI safeguard architectural heritage
and support conservation. Digital technologies have fueled research and practices in digital
preservation across various countries.
      </p>
    </sec>
    <sec id="sec-7">
      <title>7. Mobile applications</title>
      <p>Mobile applications have become instrumental in bringing cultural heritage closer to people
and enhancing their engagement and interaction with cultural artifacts, historical sites, and
heritage resources; they offer a range of features and functionalities that provide users with
immersive experiences, educational content, and convenient access to cultural heritage
information.</p>
      <p>
        Numerous apps have emerged to meet visitors' needs exploring cities and monuments,
offering real-time, enriched content and interpretations of the past through ambient computing
and deep learning
        <xref ref-type="bibr" rid="ref30">(Arias-Espinoza et al., 2018)</xref>
        . Projects like Time Machine aim to digitally
reconstruct historical places in 4D, combining them with various data types accessible through
augmented reality interfaces
        <xref ref-type="bibr" rid="ref3">(Lercari &amp; Jaffke, 2020)</xref>
        . Monugram enables real-time monument
information based on image recognition, while Woolysses provides interactive chatbot tours
with personalized multimedia content tailored to the user's needs; Eagle facilitates the automatic
recognition of Greek/Latin epigraphs and the dissemination of associated information
        <xref ref-type="bibr" rid="ref19">(Andrea
et al., 2021)</xref>
        .
      </p>
      <p>
        The use of Geographic Information Technologies (GIT) in Cultural Heritage (CH) involves
analyzing heritage value through Digital Representations (DR), considering mental spatial
cognition and physical perceptions. This field focuses on 3D data acquisition, modeling,
visualization, and integrating 3D GIS with AR in mobile platforms. Trials and products, such as
the case study of Lisbon's Aqueduct, demonstrate the application of these techniques to refine
solutions and develop mobile applications for cultural heritage
        <xref ref-type="bibr" rid="ref15">(Marques et al., 2017)</xref>
        .
      </p>
      <p>
        Many Tools as Mobile applications, such as iDig is a digital tool designed for archaeologists,
offering wireless connectivity and visualization capabilities to enhance excavation work and
recording; it has been successfully implemented at the Athenian Agora Excavations, providing
immediate digital records and optimizing workflows through the iDig iPad app
        <xref ref-type="bibr" rid="ref9">(Boyd et al.,
2021)</xref>
        .
      </p>
      <p>
        A new freeware digital system based on Google/Android platforms allows recording,
managing, and sharing archaeological survey data through smartphone/tablet with two
ArcheoSurvey and LithicsOTG applications. It offers data collection, artifact analysis, and
measurements, with storage in device memory and a cloud-based database, providing
researchers with a customizable solution for their projects
        <xref ref-type="bibr" rid="ref6">(Cascalheira et al., 2017)</xref>
        .
      </p>
      <p>
        Dig@IT is a versatile virtual reality tool that enables immersive archaeological data analysis
and curation. Its implementation at the UNESCO World Heritage site Çatalhöyük demonstrates
the feasibility of digital methods for processing and curating 3D stratigraphic data
        <xref ref-type="bibr" rid="ref5">(Lercari et al.,
2018)</xref>
        .
      </p>
      <p>
        During the 2012 field season of the Pyla-Koutsopetria Archaeological Project in Cyprus, a
custom mobile application called PKapp was created. This application showcased various
opportunities for utilizing digital workflow in archaeological research
        <xref ref-type="bibr" rid="ref4">(Fee, 2016)</xref>
        .
      </p>
      <p>
        The development of mobile apps tailored for site stewardship effectively mitigates adverse
human effects on cultural landscapes and improves our ability to document and monitor cultural
heritage sites. One such app is the Citizen Preservationist, an open-source hybrid software for
mobile and desktop use. This app promotes the preservation and utilization of archaeological
sites and historic parks. Its viability was demonstrated through a user study conducted at Bodie,
California State Historic Park
        <xref ref-type="bibr" rid="ref3">(Lercari &amp; Jaffke, 2020)</xref>
        .
      </p>
      <p>These apps aim to leverage technology to make historical knowledge more accessible and
bridge the gap between the digital and physical worlds.</p>
      <p>8.Discussion
At the core of this research lies the critical examination of the principles espoused by the iconic
Venice Charter. This guiding document has shaped the preservation and interpretation of cultural
heritage since its inception in 1964. In the face of rapidly evolving societal, technological, and
environmental challenges, the "Venice Charter New Heritage Challenges (2024)" emerges as a
revised framework that acknowledges the need for a more holistic and responsive approach to
heritage management.</p>
      <p>By exploring the integration of cutting-edge digital technologies, this study has uncovered
compelling synergies between these innovations and the principles outlined in the updated
Venice Charter. The ability of 3D scanning, VR, and AR to create accurate digital representations
and immersive experiences aligns with the Charter's emphasis on conservation, restoration, and
public engagement. Similarly, the comprehensive mapping, analysis, and documentation
capabilities afforded by GIS, high-resolution imaging, and RTI technologies resonate with the
Charter's call for diverse data collection and management. The provision of on-site interpretation
and digital archives through mobile apps and the potential of NLP and AI to enhance research,
interpretation, and knowledge dissemination further demonstrate the Charter's principles being
operationalized digitally.
. The rapid advancement of tools and techniques, from virtual reality to 3D scanning and
AIpowered analysis, has opened unprecedented opportunities to revolutionize how we interact
with and safeguard our shared cultural treasures. Yet, all researchers are acutely aware of the
need to ensure that our innovative solutions remain kirmly grounded in thetimeless principles
of the Venice Charter. The 1964 Venice Charter and its 2024 update serve as the cornerstone for
conserving and restoring monuments and sites, outlining fundamental tenets that must guide
our actions. At the heart of the Venice Charter are the principles of authenticity, integrity, and
stewardship – essential to preserving the essence and signikicance of cultural heritage. These
principles call for a reverent approach to intervention, emphasizing the importance of respecting
each heritage site's unique character and historical context and promoting the careful
documentation of all conservation work.</p>
      <p>By cultivating a deep understanding of the Venice Charter's principles and continuously
exploring innovative ways to apply them, we can ensure that our digital solutions serve as
empowering enablers rather than disruptive forces. Only then will the full transformative power
of technology be unlocked while upholding the fundamental tenets that have guided the
conservation of cultural heritage for generations.</p>
      <p>Looking to the future, the seamless integration of digital technologies with the revised Venice
Charter holds great promise for the continued evolution and improvement of cultural heritage
management and conservation. As technology advances, heritage professionals will be
increasingly equipped to address emerging challenges, such as remote monitoring and
assessment of heritage sites, developing interactive educational platforms, and leveraging
AIpowered tools for predictive analysis and decision-making. By embracing this digital
transformation, the heritage sector can ensure the long-term preservation and accessibility of
these invaluable cultural assets while fostering greater public engagement and appreciation.</p>
    </sec>
    <sec id="sec-8">
      <title>8. Conclusion</title>
      <p>Thinking in reklecting on the transformative role of digital technologies in cultural heritage
preservation, interpretation, and public engagement, we stand at a pivotal juncture. The rapid
advancement of tools and techniques, from virtual reality to 3D scanning and AI-powered
analysis, has opened unprecedented opportunities to revolutionize how we interact with and
safeguard our shared cultural treasures. Yet, as the external observer and rapporteur for this
process, I am acutely aware of the need to ensure that our innovative solutions remain kirmly
grounded in the timeless principles of the Venice Charter. The foundational tenets of authenticity,
integrity, and stewardship, as outlined in the landmark 1964 Venice Charter and its 2024 update,
must guide our actions, even as we harness the power of digital innovation. Throughout this
exploration, we have witnessed the immense potential of these technologies to enhance
accessibility, deepen public understanding, and foster cross-cultural dialogue. Virtual tours can
transport audiences to remote heritage sites, immersive experiences can breathe new life into
ancient artifacts, and AI-powered analysis can uncover hidden insights that inform preservation
efforts. However, the accurate measure of success lies in our ability to seamlessly integrate these
digital tools and techniques with the reverence and care demanded by the Venice Charter. Only
then can we unlock the full transformative power of technology while upholding the fundamental
principles that have guided the conservation of cultural heritage for generations. By cultivating
a deep understanding of the Venice Charter's principles and continuously exploring innovative
ways to apply them, we can ensure that our digital solutions serve as empowering enablers
rather than disruptive forces.</p>
    </sec>
    <sec id="sec-9">
      <title>9. References</title>
    </sec>
  </body>
  <back>
    <ref-list>
      <ref id="ref1">
        <mixed-citation>
          [1]
          <string-name>
            <surname>Cuy</surname>
            ,
            <given-names>S.</given-names>
          </string-name>
          ,
          <string-name>
            <surname>De Oliveira</surname>
            ,
            <given-names>D.</given-names>
          </string-name>
          ,
          <string-name>
            <surname>Gerth</surname>
            ,
            <given-names>P.</given-names>
          </string-name>
          ,
          <string-name>
            <surname>Kleinke</surname>
            ,
            <given-names>T.</given-names>
          </string-name>
          ,
          <string-name>
            <surname>Schierenbeck</surname>
            ,
            <given-names>J.</given-names>
          </string-name>
          , &amp;
          <string-name>
            <surname>Watson</surname>
            ,
            <given-names>J.</given-names>
          </string-name>
          (
          <year>2017</year>
          ).
          <article-title>iDAI. field 2: A Modern Approach to Distributed Fieldwork Documentation</article-title>
          .
          <source>In Proceedings of the 22nd International Conference on Cultural Heritage and New Technologies 2017. CHNT 22</source>
          ,
          <year>2017</year>
          . Museen der Stadt Wien-Stadtarchäologie.
        </mixed-citation>
      </ref>
      <ref id="ref2">
        <mixed-citation>
          [2]
          <string-name>
            <surname>Trunfio</surname>
            ,
            <given-names>M.</given-names>
          </string-name>
          ,
          <string-name>
            <surname>Lucia</surname>
            ,
            <given-names>M. D.</given-names>
          </string-name>
          ,
          <string-name>
            <surname>Campana</surname>
            ,
            <given-names>S.</given-names>
          </string-name>
          , &amp;
          <string-name>
            <surname>Magnelli</surname>
            ,
            <given-names>A.</given-names>
          </string-name>
          (
          <year>2022</year>
          ).
          <article-title>Innovating the cultural heritage museum service model through virtual reality and augmented reality: The effects on the overall visitor experience and satisfaction</article-title>
          .
          <source>Journal of Heritage Tourism</source>
          ,
          <volume>17</volume>
          (
          <issue>1</issue>
          ),
          <fpage>1</fpage>
          -
          <lpage>19</lpage>
          .
        </mixed-citation>
      </ref>
      <ref id="ref3">
        <mixed-citation>
          [3]
          <string-name>
            <surname>Lercari</surname>
            ,
            <given-names>N.</given-names>
          </string-name>
          , &amp;
          <string-name>
            <surname>Jafkke</surname>
            ,
            <given-names>D.</given-names>
          </string-name>
          (
          <year>2020</year>
          ).
          <source>Implementing Participatory Site Stewardship through Citizen Science and Mobile Apps: The Case of Bodie, California. Advances in Archaeological Practice</source>
          ,
          <volume>8</volume>
          (
          <issue>4</issue>
          ),
          <fpage>337</fpage>
          -
          <lpage>350</lpage>
          .
        </mixed-citation>
      </ref>
      <ref id="ref4">
        <mixed-citation>
          [4]
          <string-name>
            <surname>Fee</surname>
            ,
            <given-names>S. B.</given-names>
          </string-name>
          (
          <year>2016</year>
          ).
          <article-title>2.1. Reklections on Custom Mobile App Development for Archaeological Data Collection</article-title>
          .
        </mixed-citation>
      </ref>
      <ref id="ref5">
        <mixed-citation>
          [5]
          <string-name>
            <surname>Lercari</surname>
            ,
            <given-names>N.</given-names>
          </string-name>
          ,
          <string-name>
            <surname>Shiferaw</surname>
            ,
            <given-names>E.</given-names>
          </string-name>
          ,
          <string-name>
            <surname>Forte</surname>
            ,
            <given-names>M.</given-names>
          </string-name>
          , &amp;
          <string-name>
            <surname>Kopper</surname>
            ,
            <given-names>R.</given-names>
          </string-name>
          (
          <year>2018</year>
          ).
          <article-title>Immersive visualization and curation of archaeological heritage data: Çatalhö yü k and the Dig@ IT App</article-title>
          .
          <source>Journal of Archaeological Method and Theory</source>
          ,
          <volume>25</volume>
          ,
          <fpage>368</fpage>
          -
          <lpage>392</lpage>
        </mixed-citation>
      </ref>
      <ref id="ref6">
        <mixed-citation>
          [6]
          <string-name>
            <surname>Cascalheira</surname>
            ,
            <given-names>J.</given-names>
          </string-name>
          ,
          <string-name>
            <surname>Bicho</surname>
            ,
            <given-names>N.</given-names>
          </string-name>
          , &amp;
          <string-name>
            <surname>Gonçalves</surname>
            ,
            <given-names>C.</given-names>
          </string-name>
          (
          <year>2017</year>
          ).
          <article-title>A Google-based freeware solution for archaeological kield survey and onsite artifact analysis</article-title>
          .
          <source>Advances in Archaeological Practice</source>
          ,
          <volume>5</volume>
          (
          <issue>4</issue>
          ),
          <fpage>328</fpage>
          -
          <lpage>339</lpage>
          .
        </mixed-citation>
      </ref>
      <ref id="ref7">
        <mixed-citation>
          [7]
          <string-name>
            <surname>Patrik</surname>
            ,
            <given-names>A.</given-names>
          </string-name>
          ,
          <string-name>
            <surname>Utama</surname>
            ,
            <given-names>G.</given-names>
          </string-name>
          ,
          <string-name>
            <surname>Gunawan</surname>
            ,
            <given-names>A. A. S.</given-names>
          </string-name>
          ,
          <string-name>
            <surname>Chowanda</surname>
            ,
            <given-names>A.</given-names>
          </string-name>
          ,
          <string-name>
            <surname>Suroso</surname>
            ,
            <given-names>J. S.</given-names>
          </string-name>
          ,
          <string-name>
            <surname>Shokiyanti</surname>
            ,
            <given-names>R.</given-names>
          </string-name>
          , &amp;
          <string-name>
            <surname>Budiharto</surname>
            ,
            <given-names>W.</given-names>
          </string-name>
          (
          <year>2019</year>
          ).
          <article-title>GNSS-based navigation systems of autonomous drone for delivering items</article-title>
          .
          <source>Journal of Big Data</source>
          ,
          <volume>6</volume>
          ,
          <fpage>1</fpage>
          -
          <lpage>14</lpage>
          .
        </mixed-citation>
      </ref>
      <ref id="ref8">
        <mixed-citation>
          [8]
          <string-name>
            <surname>Mishra</surname>
            ,
            <given-names>M.</given-names>
          </string-name>
          ,
          <string-name>
            <surname>Barman</surname>
            ,
            <given-names>T.</given-names>
          </string-name>
          , &amp;
          <string-name>
            <surname>Ramana</surname>
            ,
            <given-names>G. V.</given-names>
          </string-name>
          (
          <year>2022</year>
          ).
          <article-title>Artikicial intelligence-based visual inspection system for structural health monitoring of cultural heritage</article-title>
          .
          <source>Journal of Civil Structural Health Monitoring</source>
          ,
          <fpage>1</fpage>
          -
          <lpage>18</lpage>
          .
        </mixed-citation>
      </ref>
      <ref id="ref9">
        <mixed-citation>
          [9]
          <string-name>
            <surname>Boyd</surname>
            ,
            <given-names>M. J.</given-names>
          </string-name>
          ,
          <string-name>
            <surname>Campbell</surname>
            ,
            <given-names>R.</given-names>
          </string-name>
          ,
          <string-name>
            <surname>Doonan</surname>
            ,
            <given-names>R. C.</given-names>
          </string-name>
          ,
          <string-name>
            <surname>Douglas</surname>
            ,
            <given-names>C.</given-names>
          </string-name>
          ,
          <string-name>
            <surname>Gavalas</surname>
            ,
            <given-names>G.</given-names>
          </string-name>
          ,
          <string-name>
            <surname>Gkouma</surname>
            ,
            <given-names>M.</given-names>
          </string-name>
          , ... &amp;
          <string-name>
            <surname>Renfrew</surname>
            ,
            <given-names>C.</given-names>
          </string-name>
          (
          <year>2021</year>
          ).
          <article-title>Open area, open data: advances in reklexive archaeological practice</article-title>
          .
          <source>Journal of Field Archaeology</source>
          ,
          <volume>46</volume>
          (
          <issue>2</issue>
          ),
          <fpage>62</fpage>
          -
          <lpage>80</lpage>
          .
        </mixed-citation>
      </ref>
      <ref id="ref10">
        <mixed-citation>
          [10]
          <string-name>
            <surname>Parfenov</surname>
            ,
            <given-names>V.</given-names>
          </string-name>
          ,
          <string-name>
            <surname>Igoshin</surname>
            ,
            <given-names>S.</given-names>
          </string-name>
          ,
          <string-name>
            <surname>Masaylo</surname>
            ,
            <given-names>D.</given-names>
          </string-name>
          ,
          <string-name>
            <surname>Orlov</surname>
            ,
            <given-names>A.</given-names>
          </string-name>
          , &amp;
          <string-name>
            <surname>Kuliashou</surname>
            ,
            <given-names>D.</given-names>
          </string-name>
          (
          <year>2022</year>
          ).
          <article-title>Use of 3D laser scanning and additive technologies for reconstruction of damaged and destroyed cultural heritage objects</article-title>
          .
          <source>Quantum Beam Science</source>
          ,
          <volume>6</volume>
          (
          <issue>1</issue>
          ),
          <fpage>11</fpage>
          .
        </mixed-citation>
      </ref>
      <ref id="ref11">
        <mixed-citation>
          [11]
          <string-name>
            <surname>Hassan</surname>
            ,
            <given-names>A. T.</given-names>
          </string-name>
          , &amp;
          <string-name>
            <surname>Fritsch</surname>
            ,
            <given-names>D.</given-names>
          </string-name>
          (
          <year>2019</year>
          ).
          <article-title>Integration of Laser Scanning and Photogrammetry in 3D/4D Cultural Heritage Preservation-A Review</article-title>
          .
          <source>International Journal of Applied</source>
          ,
          <volume>9</volume>
          (
          <issue>4</issue>
          ),
          <fpage>16</fpage>
          .
        </mixed-citation>
      </ref>
      <ref id="ref12">
        <mixed-citation>
          [12]
          <string-name>
            <surname>Kushwaha</surname>
            ,
            <given-names>S. K. P.</given-names>
          </string-name>
          ,
          <string-name>
            <surname>Dayal</surname>
            ,
            <given-names>K. R.</given-names>
          </string-name>
          , Sachchidanand, Raghavendra,
          <string-name>
            <given-names>S.</given-names>
            ,
            <surname>Pande</surname>
          </string-name>
          ,
          <string-name>
            <given-names>H.</given-names>
            ,
            <surname>Tiwari</surname>
          </string-name>
          ,
          <string-name>
            <given-names>P. S.</given-names>
            , ... &amp;
            <surname>Srivastava</surname>
          </string-name>
          ,
          <string-name>
            <surname>S. K.</surname>
          </string-name>
          (
          <year>2020</year>
          ).
          <article-title>3D Digital documentation of a cultural heritage site using terrestrial laser scanner-A case study</article-title>
          .
          <source>In Applications of Geomatics in Civil Engineering: Select Proceedings of ICGCE 2018</source>
          (pp.
          <fpage>49</fpage>
          -
          <lpage>58</lpage>
          ). Springer Singapore.
        </mixed-citation>
      </ref>
      <ref id="ref13">
        <mixed-citation>
          [13]
          <string-name>
            <given-names>Martinez</given-names>
            <surname>Espejo Zaragoza</surname>
          </string-name>
          ,
          <string-name>
            <given-names>I.</given-names>
            ,
            <surname>Caroti</surname>
          </string-name>
          ,
          <string-name>
            <given-names>G.</given-names>
            , &amp;
            <surname>Piemonte</surname>
          </string-name>
          ,
          <string-name>
            <surname>A.</surname>
          </string-name>
          (
          <year>2021</year>
          ).
          <article-title>The use of image and laser scanner survey archives for cultural heritage 3D modelling and change analysis</article-title>
          .
          <source>ACTA IMEKO</source>
          ,
          <volume>10</volume>
          (
          <issue>1</issue>
          ),
          <fpage>114</fpage>
          -
          <lpage>121</lpage>
          .
        </mixed-citation>
      </ref>
      <ref id="ref14">
        <mixed-citation>
          [14]
          <string-name>
            <surname>Trillo</surname>
            ,
            <given-names>C.</given-names>
          </string-name>
          ,
          <string-name>
            <surname>Aburamadan</surname>
            ,
            <given-names>R.</given-names>
          </string-name>
          ,
          <string-name>
            <surname>Mubaideen</surname>
            ,
            <given-names>S.</given-names>
          </string-name>
          ,
          <string-name>
            <surname>Salameen</surname>
            ,
            <given-names>D.</given-names>
          </string-name>
          , &amp;
          <string-name>
            <surname>Makore</surname>
            ,
            <given-names>B. C. N.</given-names>
          </string-name>
          (
          <year>2020</year>
          ).
          <article-title>Towards a systematic approach to digital technologies for heritage conservation</article-title>
          .
          <source>Insights from Jordan. Preservation, Digital Technology &amp; Culture</source>
          ,
          <volume>49</volume>
          (
          <issue>4</issue>
          ),
          <fpage>121</fpage>
          -
          <lpage>138</lpage>
          .
        </mixed-citation>
      </ref>
      <ref id="ref15">
        <mixed-citation>
          [15]
          <string-name>
            <surname>Marques</surname>
            ,
            <given-names>L. F.</given-names>
          </string-name>
          , Tenedó rio,
          <string-name>
            <given-names>J. A.</given-names>
            ,
            <surname>Burns</surname>
          </string-name>
          ,
          <string-name>
            <surname>M.</surname>
          </string-name>
          , Romã o,
          <string-name>
            <given-names>T.</given-names>
            ,
            <surname>Birra</surname>
          </string-name>
          ,
          <string-name>
            <given-names>F.</given-names>
            ,
            <surname>Marques</surname>
          </string-name>
          ,
          <string-name>
            <given-names>J.</given-names>
            , &amp;
            <surname>Pires</surname>
          </string-name>
          ,
          <string-name>
            <surname>A.</surname>
          </string-name>
          (
          <year>2017</year>
          ).
          <article-title>Cultural Heritage 3D Modelling and visualisation within an Augmented Reality Environment, based on Geographic Information Technologies and mobile platforms</article-title>
          .
          <source>ACE: Arquitectura</source>
          , Ciudad y Entorno.
        </mixed-citation>
      </ref>
      <ref id="ref16">
        <mixed-citation>
          [16]
          <string-name>
            <surname>Haddad</surname>
            ,
            <given-names>N. A.</given-names>
          </string-name>
          ,
          <string-name>
            <surname>Fakhoury</surname>
            ,
            <given-names>L. A.</given-names>
          </string-name>
          , &amp;
          <string-name>
            <surname>Sakr</surname>
            ,
            <given-names>Y. M.</given-names>
          </string-name>
          (
          <year>2021</year>
          ).
          <article-title>A critical anthology of international charters, conventions &amp; principles on documentation of cultural heritage for conservation, monitoring &amp; management</article-title>
          .
          <source>Mediterr. Archaeol. Archaeom</source>
          ,
          <volume>21</volume>
          ,
          <fpage>291</fpage>
          -
          <lpage>310</lpage>
          .
        </mixed-citation>
      </ref>
      <ref id="ref17">
        <mixed-citation>
          [17]
          <string-name>
            <surname>Ali</surname>
            ,
            <given-names>J. M. A.</given-names>
          </string-name>
          , &amp;
          <string-name>
            <surname>Hamed</surname>
            ,
            <given-names>H. M.</given-names>
          </string-name>
          (
          <year>2019</year>
          ).
          <article-title>Employing augmented reality for reviving heritage sites: an AR vision for Qasr al-Abd in Jordan</article-title>
          .
          <source>American Journal of Tourism Research</source>
          ,
          <volume>8</volume>
          (
          <issue>1</issue>
          ),
          <fpage>1</fpage>
          -
          <lpage>10</lpage>
          .
        </mixed-citation>
      </ref>
      <ref id="ref18">
        <mixed-citation>
          [18]
          <string-name>
            <surname>Belhi</surname>
            ,
            <given-names>A.</given-names>
          </string-name>
          ,
          <string-name>
            <surname>Gasmi</surname>
            ,
            <given-names>H.</given-names>
          </string-name>
          ,
          <string-name>
            <surname>Al-Ali</surname>
            ,
            <given-names>A. K.</given-names>
          </string-name>
          ,
          <string-name>
            <surname>Bouras</surname>
            ,
            <given-names>A.</given-names>
          </string-name>
          ,
          <string-name>
            <surname>Foufou</surname>
            ,
            <given-names>S.</given-names>
          </string-name>
          ,
          <string-name>
            <surname>Yu</surname>
            ,
            <given-names>X.</given-names>
          </string-name>
          , &amp;
          <string-name>
            <surname>Zhang</surname>
            ,
            <given-names>H.</given-names>
          </string-name>
          (
          <year>2019</year>
          ,
          <article-title>August)</article-title>
          .
          <article-title>Deep learning and cultural heritage: the CEPROQHA project case study</article-title>
          .
          <source>In 2019 13th International Conference on Software, Knowledge, Information Management and Applications (SKIMA)</source>
          (pp.
          <fpage>1</fpage>
          -
          <lpage>5</lpage>
          ). IEEE.
        </mixed-citation>
      </ref>
      <ref id="ref19">
        <mixed-citation>
          [19]
          <string-name>
            <surname>Andrea</surname>
            ,
            <given-names>G.</given-names>
          </string-name>
          ,
          <string-name>
            <surname>Russo</surname>
            ,
            <given-names>M.</given-names>
          </string-name>
          , &amp;
          <string-name>
            <surname>Roberta</surname>
            ,
            <given-names>S.</given-names>
          </string-name>
          (
          <year>2021</year>
          ).
          <source>REPRESENTATION CHALLENGES</source>
          .
          <article-title>Augmented Reality and Artikicial Intelligence in Cultural Heritage and Innovative Design Domain</article-title>
          .
          <source>DISE} GNOOPEN ACCESS</source>
          ,
          <volume>1</volume>
          -
          <fpage>432</fpage>
          .
        </mixed-citation>
      </ref>
      <ref id="ref20">
        <mixed-citation>
          [20]
          <string-name>
            <surname>Dou</surname>
            ,
            <given-names>J.</given-names>
          </string-name>
          ,
          <string-name>
            <surname>Qin</surname>
            ,
            <given-names>J.</given-names>
          </string-name>
          ,
          <string-name>
            <surname>Jin</surname>
            ,
            <given-names>Z.</given-names>
          </string-name>
          , &amp;
          <string-name>
            <surname>Li</surname>
            ,
            <given-names>Z.</given-names>
          </string-name>
          (
          <year>2018</year>
          ).
          <article-title>Knowledge graph based on domain ontology and natural language processing technology for Chinese intangible cultural heritage</article-title>
          .
          <source>Journal of Visual Languages &amp; Computing</source>
          ,
          <volume>48</volume>
          ,
          <fpage>19</fpage>
          -
          <lpage>28</lpage>
          .
        </mixed-citation>
      </ref>
      <ref id="ref21">
        <mixed-citation>
          [21]
          <string-name>
            <surname>Shubita</surname>
            ,
            <given-names>A.</given-names>
          </string-name>
          , &amp;
          <string-name>
            <surname>Saleh</surname>
            ,
            <given-names>Y.</given-names>
          </string-name>
          (
          <year>2020</year>
          ).
          <article-title>The application of artikicialintelligence technology in cultural heritage development</article-title>
          .
          <source>International Journal of Recent Technology and Engineering</source>
          ,
          <volume>8</volume>
          (
          <issue>5</issue>
          ),
          <fpage>1140</fpage>
          -
          <lpage>1146</lpage>
          .
        </mixed-citation>
      </ref>
      <ref id="ref22">
        <mixed-citation>
          [22]
          <string-name>
            <surname>Moullou</surname>
            ,
            <given-names>D.</given-names>
          </string-name>
          ,
          <string-name>
            <surname>Vital</surname>
            ,
            <given-names>R.</given-names>
          </string-name>
          ,
          <string-name>
            <surname>Sylaiou</surname>
            ,
            <given-names>S.</given-names>
          </string-name>
          , &amp;
          <string-name>
            <surname>Ragia</surname>
            ,
            <given-names>L.</given-names>
          </string-name>
          (
          <year>2023</year>
          ).
          <article-title>Digital Tools for Data Acquisition and Heritage Management in Archaeology and Their Impact on Archaeological Practices</article-title>
          . Heritage,
          <volume>7</volume>
          (
          <issue>1</issue>
          ),
          <fpage>107</fpage>
          -
          <lpage>121</lpage>
          .
          <fpage>4</fpage>
        </mixed-citation>
      </ref>
      <ref id="ref23">
        <mixed-citation>
          [23]
          <string-name>
            <surname>Al-Adamat</surname>
            ,
            <given-names>R.</given-names>
          </string-name>
          ,
          <string-name>
            <surname>Al-Shawabkeh</surname>
            ,
            <given-names>Y.</given-names>
          </string-name>
          ,
          <string-name>
            <surname>Al-Kour</surname>
            ,
            <given-names>O.</given-names>
          </string-name>
          , &amp;
          <string-name>
            <surname>Al-Shabeeb</surname>
            ,
            <given-names>A. R.</given-names>
          </string-name>
          (
          <year>2016</year>
          ).
          <article-title>A multi-resolution photogrammetric framework for digital geometric recording of large archeological sites: Ajloun Castle-Jordan</article-title>
          .
          <source>International Journal of Geosciences</source>
          ,
          <volume>7</volume>
          (
          <issue>3</issue>
          ),
          <fpage>425</fpage>
          -
          <lpage>439</lpage>
          .
        </mixed-citation>
      </ref>
      <ref id="ref24">
        <mixed-citation>
          [24]
          <string-name>
            <surname>Malinverni</surname>
            ,
            <given-names>E. S.</given-names>
          </string-name>
          ,
          <string-name>
            <surname>Pierdicca</surname>
            ,
            <given-names>R.</given-names>
          </string-name>
          ,
          <string-name>
            <given-names>Di</given-names>
            <surname>Stefano</surname>
          </string-name>
          ,
          <string-name>
            <given-names>F.</given-names>
            ,
            <surname>Gabrielli</surname>
          </string-name>
          ,
          <string-name>
            <given-names>R.</given-names>
            , &amp;
            <surname>Albiero</surname>
          </string-name>
          ,
          <string-name>
            <surname>A.</surname>
          </string-name>
          (
          <year>2019</year>
          ).
          <article-title>Virtual museum enriched by GIS data to share science and culture. Church of Saint Stephen in Umm ArRasas (Jordan)</article-title>
          .
          <source>Virtual Archaeology Review</source>
          ,
          <volume>10</volume>
          (
          <issue>21</issue>
          ),
          <fpage>31</fpage>
          -
          <lpage>39</lpage>
          .
        </mixed-citation>
      </ref>
      <ref id="ref25">
        <mixed-citation>
          [25]
          <string-name>
            <surname>Longo</surname>
            ,
            <given-names>I. E.</given-names>
          </string-name>
          (
          <year>2017</year>
          ).
          <article-title>ThreeDimensional Epigraphic Recording at Stobi (Former Yugoslav Republic of Macedonia): Creating a Virtual Lapidarium</article-title>
          .
        </mixed-citation>
      </ref>
      <ref id="ref26">
        <mixed-citation>
          [26]
          <string-name>
            <surname>Aburamadan</surname>
            ,
            <given-names>R.</given-names>
          </string-name>
          ,
          <string-name>
            <surname>Trillo</surname>
            ,
            <given-names>C.</given-names>
          </string-name>
          ,
          <string-name>
            <surname>Cotella</surname>
            ,
            <given-names>V. A.</given-names>
          </string-name>
          ,
          <string-name>
            <surname>Di Perna</surname>
            ,
            <given-names>E.</given-names>
          </string-name>
          ,
          <string-name>
            <surname>Ncube</surname>
            ,
            <given-names>C.</given-names>
          </string-name>
          ,
          <string-name>
            <surname>Moustaka</surname>
            ,
            <given-names>A.</given-names>
          </string-name>
          , ... &amp;
          <string-name>
            <surname>Awuah</surname>
            ,
            <given-names>K. G. B.</given-names>
          </string-name>
          (
          <year>2022</year>
          ).
          <article-title>Developing a heritage BIM shared library for two case studies in Jordan's heritage: The House of Art in Amman and the Qaqish House in the World Heritage City of As-Salt</article-title>
          .
          <source>Heritage Science</source>
          ,
          <volume>10</volume>
          (
          <issue>1</issue>
          ),
          <fpage>1</fpage>
          -
          <lpage>21</lpage>
          .
        </mixed-citation>
      </ref>
      <ref id="ref27">
        <mixed-citation>
          [27]
          <string-name>
            <surname>Li</surname>
            ,
            <given-names>Y.</given-names>
          </string-name>
          ,
          <string-name>
            <surname>Du</surname>
            ,
            <given-names>Y.</given-names>
          </string-name>
          ,
          <string-name>
            <surname>Yang</surname>
            ,
            <given-names>M.</given-names>
          </string-name>
          ,
          <string-name>
            <surname>Liang</surname>
            ,
            <given-names>J.</given-names>
          </string-name>
          ,
          <string-name>
            <surname>Bai</surname>
            ,
            <given-names>H.</given-names>
          </string-name>
          ,
          <string-name>
            <surname>Li</surname>
            ,
            <given-names>R.</given-names>
          </string-name>
          , &amp;
          <string-name>
            <surname>Law</surname>
            ,
            <given-names>A.</given-names>
          </string-name>
          (
          <year>2023</year>
          ).
          <article-title>A review of the tools and techniques used in the digital preservation of architectural heritage within disaster cycles</article-title>
          .
          <source>Heritage Science</source>
          ,
          <volume>11</volume>
          (
          <issue>1</issue>
          ),
          <fpage>199</fpage>
          .
        </mixed-citation>
      </ref>
      <ref id="ref28">
        <mixed-citation>
          [28]
          <string-name>
            <surname>Maietti</surname>
            ,
            <given-names>F.</given-names>
          </string-name>
          ;
          <string-name>
            <surname>Di</surname>
            <given-names>Giulio</given-names>
          </string-name>
          , R.; Medici,
          <string-name>
            <given-names>M.</given-names>
            ;
            <surname>Ferrari</surname>
          </string-name>
          ,
          <string-name>
            <given-names>F.</given-names>
            ;
            <surname>Ziri</surname>
          </string-name>
          ,
          <string-name>
            <given-names>A.E.</given-names>
            ;
            <surname>Turillazzi</surname>
          </string-name>
          ,
          <string-name>
            <given-names>B.</given-names>
            ;
            <surname>Bonsma</surname>
          </string-name>
          ,
          <string-name>
            <surname>P.</surname>
          </string-name>
          (
          <year>2020</year>
          ). Documentation, Processing, and
          <article-title>Representation of Architectural Heritage through 3D Semantic Modelling: The INCEPTION Project</article-title>
          .
          <source>In Impact of Industry 4.0 on Architecture and Cultural Heritage; IGI Global: Hershey</source>
          , PA, USA,
          <year>2020</year>
          ; pp.
          <fpage>202</fpage>
          -
          <lpage>238</lpage>
          .
        </mixed-citation>
      </ref>
      <ref id="ref29">
        <mixed-citation>
          [29]
          <string-name>
            <surname>Maietti</surname>
            ,
            <given-names>F.</given-names>
          </string-name>
          ;
          <string-name>
            <surname>Piaia</surname>
            ,
            <given-names>E.</given-names>
          </string-name>
          ;
          <string-name>
            <surname>Mincolelli</surname>
            ,
            <given-names>G.; Di</given-names>
          </string-name>
          <string-name>
            <surname>Giulio</surname>
            , R.; Imbesi,
            <given-names>S.</given-names>
          </string-name>
          ; Marchi,
          <string-name>
            <given-names>M.</given-names>
            ;
            <surname>Giacobone</surname>
          </string-name>
          ,
          <string-name>
            <given-names>G.A.</given-names>
            ;
            <surname>Brunoro</surname>
          </string-name>
          ,
          <string-name>
            <surname>S.</surname>
          </string-name>
          <article-title>Accessing and Understanding Cultural Heritage through Users Experience within the INCEPTION Project</article-title>
          . In Digital Heritage. Progress in Cultural Heritage: Documentation, Preservation, and Protection: EuroMed. Lecture Notes in Computer Science, Nicosia, Cyprus,
          <volume>29</volume>
          <fpage>October</fpage>
          -3
          <source>November</source>
          <year>2018</year>
          ; Ioannides,
          <string-name>
            <given-names>M.</given-names>
            ,
            <surname>Fink</surname>
          </string-name>
          ,
          <string-name>
            <given-names>E.</given-names>
            ,
            <surname>Brumana</surname>
          </string-name>
          ,
          <string-name>
            <given-names>R.</given-names>
            ,
            <surname>Patias</surname>
          </string-name>
          ,
          <string-name>
            <given-names>P.</given-names>
            ,
            <surname>Doulamis</surname>
          </string-name>
          ,
          <string-name>
            <given-names>A.</given-names>
            ,
            <surname>Martins</surname>
          </string-name>
          ,
          <string-name>
            <given-names>J.</given-names>
            ,
            <surname>Wallace</surname>
          </string-name>
          , M., Eds.; Springer: Cham, Switzerland,
          <year>2018</year>
          ; Volume
          <volume>11196</volume>
          .
        </mixed-citation>
      </ref>
      <ref id="ref30">
        <mixed-citation>
          [30]
          <string-name>
            <surname>Arias-Espinoza</surname>
            ,
            <given-names>P.</given-names>
          </string-name>
          ;
          <string-name>
            <surname>Medina-Carrió n</surname>
          </string-name>
          , A.;
          <string-name>
            <surname>Robles-Bykbaev</surname>
            ,
            <given-names>V.</given-names>
          </string-name>
          ;
          <string-name>
            <surname>Robles-Bykbaev</surname>
            ,
            <given-names>Y.</given-names>
          </string-name>
          ; PesántezAvilés, F.;
          <string-name>
            <surname>Ortega</surname>
            ,
            <given-names>J.</given-names>
          </string-name>
          ;
          <string-name>
            <surname>Matute</surname>
            ,
            <given-names>D.</given-names>
          </string-name>
          ;
          <article-title>Roldán-</article-title>
          <string-name>
            <surname>Monsalve</surname>
            ,
            <given-names>V.</given-names>
          </string-name>
          <article-title>e-Pumapunku: An Interactive App to Teach Children the Cañ ari and Inca Indigenous Cultures During Guided Museum Visits</article-title>
          .
          <source>In Proceedings of the 2018</source>
          Congreso Internacional De Innovació n
          <string-name>
            <given-names>Y Tendencias</given-names>
            <surname>En</surname>
          </string-name>
          <article-title>Ingenierı́a (CONIITI), Bogota</article-title>
          , Colombia,
          <fpage>3</fpage>
          -
          <lpage>5</lpage>
          October 2018; pp.
          <fpage>1</fpage>
          -
          <lpage>5</lpage>
          .
        </mixed-citation>
      </ref>
      <ref id="ref31">
        <mixed-citation>
          [31]
          <string-name>
            <surname>Bozzelli</surname>
            ,
            <given-names>G.</given-names>
          </string-name>
          ,
          <string-name>
            <surname>Raia</surname>
            ,
            <given-names>A.</given-names>
          </string-name>
          ,
          <string-name>
            <surname>Ricciardi</surname>
            ,
            <given-names>S.</given-names>
          </string-name>
          ,
          <string-name>
            <surname>De Nino</surname>
            ,
            <given-names>M.</given-names>
          </string-name>
          ,
          <string-name>
            <surname>Barile</surname>
            ,
            <given-names>N.</given-names>
          </string-name>
          ,
          <string-name>
            <surname>Perrella</surname>
            ,
            <given-names>M.</given-names>
          </string-name>
          , ... &amp;
          <string-name>
            <surname>Palombini</surname>
            ,
            <given-names>A.</given-names>
          </string-name>
          (
          <year>2019</year>
          ).
          <article-title>An integrated VR/AR framework for user-centric interactive experience of cultural heritage: The ArkaeVision project</article-title>
          .
          <source>Digital Applications in Archaeology and Cultural Heritage</source>
          ,
          <volume>15</volume>
          ,
          <year>e00124</year>
          .
        </mixed-citation>
      </ref>
      <ref id="ref32">
        <mixed-citation>
          [32]
          <string-name>
            <surname>Pietroni</surname>
            ,
            <given-names>E.</given-names>
          </string-name>
          ,
          <string-name>
            <surname>Menconero</surname>
            ,
            <given-names>S.</given-names>
          </string-name>
          ,
          <string-name>
            <surname>Botti</surname>
            ,
            <given-names>C.</given-names>
          </string-name>
          , &amp;
          <string-name>
            <surname>Ghedini</surname>
            ,
            <given-names>F.</given-names>
          </string-name>
          (
          <year>2023</year>
          ).
          <article-title>e-Archeo: A Pilot National Project to Valorize Italian Archaeological Parks through Digital and Virtual Reality Technologies</article-title>
          .
          <source>Applied System Innovation</source>
          ,
          <volume>6</volume>
          (
          <issue>2</issue>
          ),
          <fpage>38</fpage>
          .
        </mixed-citation>
      </ref>
      <ref id="ref33">
        <mixed-citation>
          [33]
          <string-name>
            <surname>Duffy</surname>
            ,
            <given-names>S. M.</given-names>
          </string-name>
          ,
          <string-name>
            <surname>Goskar</surname>
            ,
            <given-names>T.</given-names>
          </string-name>
          ,
          <string-name>
            <surname>Backhouse</surname>
            ,
            <given-names>P.</given-names>
          </string-name>
          , &amp;
          <string-name>
            <surname>Kennedy</surname>
            ,
            <given-names>H.</given-names>
          </string-name>
          (
          <year>2018</year>
          ).
          <article-title>Multi-light Imaging HighlightReklectance Transformation Imaging (H-RTI) for Cultural Heritage</article-title>
          . Historic England. https://historicengland. org. uk/images-books/
          <article-title>publications/multi-light-imaging-heritageapplications.</article-title>
        </mixed-citation>
      </ref>
      <ref id="ref34">
        <mixed-citation>
          [34]
          <string-name>
            <surname>Earl</surname>
            ,
            <given-names>G.</given-names>
          </string-name>
          ,
          <string-name>
            <surname>Basford</surname>
            ,
            <given-names>P.</given-names>
          </string-name>
          ,
          <string-name>
            <surname>Bischoff</surname>
            ,
            <given-names>A.</given-names>
          </string-name>
          ,
          <string-name>
            <surname>Bowman</surname>
            ,
            <given-names>A.</given-names>
          </string-name>
          ,
          <string-name>
            <surname>Crowther</surname>
            ,
            <given-names>C.</given-names>
          </string-name>
          ,
          <string-name>
            <surname>Dahl</surname>
            ,
            <given-names>J.</given-names>
          </string-name>
          , ... &amp;
          <string-name>
            <surname>Piquette</surname>
            ,
            <given-names>K. E.</given-names>
          </string-name>
          (
          <year>2011</year>
          ).
          <article-title>Reklectance transformation imaging systems for ancient documentary artefacts</article-title>
          .
          <source>Electronic visualisation and the arts (EVA</source>
          <year>2011</year>
          ),
          <fpage>147</fpage>
          -
          <lpage>154</lpage>
          .
        </mixed-citation>
      </ref>
      <ref id="ref35">
        <mixed-citation>
          [35]
          <string-name>
            <surname>Del Pozo</surname>
            ,
            <given-names>S.</given-names>
          </string-name>
          , Rodrı́
          <fpage>guez</fpage>
          -Gonzálvez,
          <string-name>
            <surname>P.</surname>
          </string-name>
          ,
          <article-title>Sánchez-</article-title>
          <string-name>
            <surname>Aparicio</surname>
            ,
            <given-names>L. J.</given-names>
          </string-name>
          ,
          <article-title>Muñ oz-</article-title>
          <string-name>
            <surname>Nieto</surname>
            ,
            <given-names>A.</given-names>
          </string-name>
          , HernándezLó pez,
          <string-name>
            <surname>D.</surname>
          </string-name>
          , Felipe-Garcı́a,
          <string-name>
            <surname>B.</surname>
          </string-name>
          , &amp;
          <article-title>González-</article-title>
          <string-name>
            <surname>Aguilera</surname>
            ,
            <given-names>D.</given-names>
          </string-name>
          (
          <year>2017</year>
          ).
          <article-title>Multispectral imaging in cultural heritage conservation</article-title>
          .
          <source>The International Archives of the Photogrammetry, Remote Sensing and Spatial Information Sciences</source>
          ,
          <volume>42</volume>
          ,
          <fpage>155</fpage>
          -
          <lpage>162</lpage>
          .
        </mixed-citation>
      </ref>
    </ref-list>
  </back>
</article>