3D Research Challenges in Cultural Heritage III : : Complexity and Quality in Digitisation.

• Superior document: Lecture Notes in Computer Science Series ; v.13125
• Author: Ioannides, Marinos.
• TeilnehmendeR: Patias, Petros.
• Place / Publishing House: Cham : : Springer International Publishing AG,, 2023.; ©2023.
• Year of Publication: 2023
• Edition: 1st ed.
• Language: English
• Series: Lecture Notes in Computer Science Series
• Physical Description: 1 online resource (165 pages)

Table of Contents

• Intro
• Preface
• Contents
• The Complexity and Quality in 3D Digitisation of the Past: Challenges and Risks
• 1 Introduction
• 2 The Process of Digitising Movable and Immovable Tangible Cultural Heritage
• 3 Defining Complexity
• 4 Exemplification of Complexity
• 5 Parameters that Determine Quality
• 6 Standards and Benchmarks
• 7 Identification of Gaps, Additional Formats, Standards, Benchmarks, Methodologies, and Guidelines
• 8 Uncertainty
• 9 Forecast Impact of Future Technological Advances
• 10 3D Digitisation Process Complexity
• 11 Conclusion
• References
• Towards Sustainable Digitization
• 1 Introduction
• 2 What Makes Heritage Documentation so Complex? Key Limiting Factors in Surveys with TLS
• 2.1 Technological Aspects
• 2.2 Challenging Object Properties
• 2.3 Challenging Circumstances and Environment
• 3 Technological Strategies for Managing Complexity and Data Quality in High Profile Projects
• 3.1 Software and Workflow Strategies
• 3.2 Hardware Approaches
• 4 Conclusions and Outlook
• References
• Evolving Standards in Digital Cultural Heritage - Developing a IIIF 3D Technical Specification
• 1 Overview
• 2 Key Use Cases and Prototypes
• 3 Combining Content in 3D Environments
• 4 Requirements for Annotation in a 3D Environment
• 5 Authentication and Search APIs for 3D Content
• 6 IIIF 3D Technical Specification Group Charter
• References
• The Quality in 3D Acquisition of Cultural Heritage Assets: Challenges and Risks
• 1 Introduction
• 2 Technologies for 3D Acquisition
• 2.1 Photogrammetry Methods
• 2.2 Laser Scanners
• 2.3 Handheld for Close-Range Acquisition
• 2.4 Supplementary Instruments
• 3 Factors Affecting the Quality of 3D Acquisition
• 3.1 Instrumental
• 3.2 Object Materials and Geometry
• 3.3 Environmental Conditions
• 3.4 Human Factor
• 4 Conclusions
• References.
• How to Measure Quality Models? Digitization into Informative Models Re-use
• 1 Introduction
• 2 Complexity and Quality: #Parameters into a Multiple Variable Radar Chart
• 2.1 A Success Story into the Radar Chart: The Basilica di Santa Maria di Collemaggio (L'Aquila, Earthquake 2009) Reopened to the Public in 2018, Awarded by Europa Nostra 2020
• 3 How to Define the User Needs? #Scale as a Parameter
• 3.1 How to Measure Quality Model? Surveying to Digitization: Scale as a Parameter to Check Quality Control and to Re-use Models
• 3.2 3D Quality Content Models: #scale as a Parameter to Select the Proper Instruments and to Process Reliable Data (Precision and Accuracy): Specifications, Scales of Representation, Minimum Detail, and Tolerance Parameters
• 4 Beyond Geometry Through Geometry: # Parameters to Manage Informative Enriched 3D Quality Models Contents Transferring
• 4.1 Not Just a Matter of Measuring: Geometries Embodying Materials and Construction Techniques Through HBIM
• 4.2 Structural Health Monitoring: #Finite Element Analysis Complex Models as a Parameter of Quality (BIM-to-FEA)
• 4.3 3D Quality Models Enriched by Building Archeology: HBIM 3D Volume Stratigraphic Units and Levels of Uncertainties
• 5 Toward Quality Model Specification: BIM to HBIM LOGs-LODs, Reversing the Logic Simplex-to-Complex BIM Model (Building Construction) in Favor of Complex Modeling Knowledge-Creation Since the Design Starting Phases
• 5.1 # Level of Development Phases Inherited by the BIM Logic and Adapted to the HBIM
• 5.2 Levels of Geometry Proposal in the Heritage Domain: HBIM LOG100-200-300-400-500-600
• 5.3 Sharing 3D Quality Models, Re-use and Circulation: Common Data Environment Toward XR Platforms and Interoperability
• 6 Conclusions and Remarks
• References.
• The Holistic Documentation of Movable Cultural Heritage Objects - The Case of the Antikythera Mechanism
• 1 Introduction
• 2 Identifying Necessary Data for the Holistic Documentation of Movable Archaeological Findings
• 3 The Existing Data for the Holistic Documentation of the Antikythera Mechanism
• 3.1 The Antikythera Shipwreck and the Discovery of the Mechanism
• 3.2 The Investigation of the Antikythera Mechanism
• References
• Digital Documentation of Reflective Objects: A Cross-Polarised Photogrammetry Workflow for Complex Materials
• 1 Introduction
• 1.1 Background
• 1.2 Our Approach
• 2 Methodology
• 2.1 Data Capture
• 2.2 Data Processing
• 3 Results and Discussion
• 3.1 Ceramic
• 3.2 Metal
• 3.3 Wood
• 4 Conclusion
• Appendix
• References
• Author Index.