Abstract

Virtual replicas of infrastructure can be used to run simulations and optimize the construction, management, and maintenance of such assets throughout their entire lifecycle. These digital twins (defined as integrated multi-physics, multiscale, and probabilistic simulations of a complex product) mirror the behavior and environmental responses of its corresponding twin. Digital reconstruction techniques using optical sensor technologies and mobile sensor platforms are providing viable, low-cost alternatives to develop digital twins of physical infrastructure. In previous work, the digital twinning of asphalt pavement surfacings using visual simultaneous localization and mapping and the initiation of a digital twin of a local road network were investigated and successfully demonstrated. In this article, the further development of the concept, incorporating road surface temperatures collected over a 1-month period, as well as potential inferences based on these data, in the micro- and macro-twinning of a local road, are discussed. Light detection and ranging, unmanned aerial vehicles, and traffic counting artificial intelligence allows for quantification of the road geometry and infrastructure utilization over large areas (macro-twinning), whereas the photogrammetric reconstruction technique based on a neural network, a proprietary environmental condition sensor (SNOET, or SNiffing Omgewing / Environmental Tester) and commercial temperature sensors were used to acquire the surface texture and environmental conditions respectively (micro-twinning), as well as surface temperatures at four locations and different surfacing materials. The combination of advanced environmental monitoring data, physical data, and surface temperature data provide management data that can assist in the maintenance of such roads. This article expands (with the permission of the conference organizers) on a GeoChina 2021 article through the addition of further temperature data collected on the discussed digital twin, with substantial additional data analysis and discussion.

References

1.
F.
 
Tao
,
K.
 
Cheng
,
Q.
 
Qi
,
M.
 
Zhang
,
H.
 
Zhang
, and
F.
 
Sui
, “
Digital Twin-Driven Product Design, Manufacturing and Service with Big Data
,”
The International Journal of Advanced Manufacturing Technology
94
(
2018
):
3563
3576
,
2.
A.
 
Núñez
,
J.
 
Hendriks
,
Z.
 
Li
,
B.
 
De Schutter
, and
R.
 
Dollevoet
, “
Facilitating Maintenance Decisions on the Dutch Railways Using Big Data: The ABA Case Study
,” in
2014 International Conference on Big Data (Big Data)
(
Piscataway, NJ
:
Institute of Electrical and Electronics Engineers
,
2014
),
48
53
, https://doi.org/10.1109/BigData.2014.7004431
3.
T.
 
Ruohomäki
,
E.
 
Airaksinen
,
P.
 
Huuska
,
O.
 
Kesäniemi
,
M.
 
Martikka
, and
J.
 
Suomisto
, “
Smart City Platform Enabling Digital Twin
,” in
2018 International Conference on Intelligent Systems (IS)
(
Piscataway, NJ
:
Institute of Electrical and Electronic Engineers
,
2018
),
155
161
, https://doi.org/10.1109/IS.2018.8710517
4.
V. Q.
 
Lu
,
A. K.
 
Parlikad
,
P.
 
Woodall
,
G. D.
 
Ranasinghe
, and
J.
 
Heaton
, “
Developing a Dynamic Digital Twin at a Building Level: Using Cambridge Campus as Case Study
,” in
International Conference on Smart Infrastructure and Construction 2019 (ICSIC)
(
London
:
ICE Publishing
,
2019
),
67
75
, https://doi.org/10.1680/icsic.64669.067
5.
T.
 
Machl
,
A.
 
Donaubauer
, and
T. H.
 
Kolbe
, “
Planning Agricultural Core Road Networks Based on a Digital Twin of the Cultivated Landscape
,”
Journal of Digital Landscape Architecture
4
(May
2019
):
316
327
,
6.
M.
 
Liu
,
S.
 
Fang
,
H.
 
Dong
, and
C.
 
Xu
, “
Review of Digital Twin About Concepts, Technologies, and Industrial Applications
,”
Journal of Manufacturing Systems
58
(January
2021
):
346
361
,
7.
W. J. vdM.
 
Steyn
and
A.
 
Broekman
, “
Civiltronics: Fusing Civil and elecTronics Engineering in the 4IR Era
,”
Magazine of the South African Institution of Civil Engineering
28
, no. 
1
(January/February
2020
):
24
28
.
8.
A.
 
Broekman
and
P. J.
 
Gräbe
, “
Development and Calibration of a Wireless, Inertial Measurement Unit (Kli-Pi) for Railway and Transportation Applications
” (
paper presentation, 37th Annual South African Transport Conference
,
Pretoria, South Africa
, July 9–12,
2018
).
9.
A.
 
Broekman
and
P. J.
 
Gräbe
, “
Analysis, Interpretation and Testing of Mesoscale Ballast Dynamics using Kli-Pi
” (
paper presentation, International Heavy Haul Association Conference
,
Narvik, Norway
, June 12,
2019
).
10.
M. W.
 
Sayers
, and
S. M.
 
Karamihas
,
The Little Book of Profiling: Basic Information about Measuring and Interpreting Road Profiles
(
Ann Arbor, MI
:
The Regents of the University of Michigan
,
1998
).
11.
B.
 
Sengoz
,
A.
 
Topal
, and
S.
 
Tanyel
, “
Comparison of Pavement Surface Texture Determination by Sand Patch Test and 3D Laser Scanning
,”
Periodica Polytechnica Civil Engineering
56
, no. 
1
(
2012
):
73
78
,
12.
C. J.
 
Pretorius
and
W. J. vdM.
 
Steyn
, “
Quality Deterioration and Loss of Shelf Life as a Result of Poor Road Conditions
,”
International Journal of Postharvest Technology and Innovation
6
, no. 
1
(
2019
):
26
45
,
13.
I.
 
Wessels
and
W. J. vdM.
 
Steyn
, “
Continuous, Response-Based Road Roughness Measurements Utilizing Data Harvested from Telematics Device Sensors
,”
International Journal of Pavement Engineering
21
, no. 
4
(
2020
):
437
446
,
14.
Standard Practice for Calculating Pavement Macro-Texture Mean Profile Depth
, ASTM E1845–15 (
2001
) (
West Conshohocken, PA
:
ASTM International
, approved May 1,
2015
), https://doi.org/10.1520/E1845-15
15.
Standard Test Method for Measuring Pavement Macrotexture Depth Using a Volumetric Technique
, ASTM E965–96 (Superseded) (
West Conshohocken, PA
:
ASTM International
, approved November 10,
1996
), https://doi.org/10.1520/E0965-96
16.
A.
 
Van der Gryp
and
G.
 
Van Zyl
, “
Variability and Control of Gravel Road Visual Assessments
,”
Journal of the Transportation Research Board
1989-2
, no. 
1
(January
2007
):
247
253
,
17.
W. J. vdM.
 
Steyn
,
G. J.
 
Jordaan
,
A.
 
Broekman
, and
A.
 
Marais
, “
Evaluation of Novel Chip Seals Applications during Periods of Low Temperatures
” (paper presentation,
12th Conference on Asphalt Pavements for Southern Africa
,
Sun City, South Africa
, October 13–16,
2019
).
18.
G.
 
Jordaan
,
A.
 
Kilian
,
L.
 
Du Plessis
, and
M.
 
Murphy
, “
The Development of Cost-Effective Pavement Design Approaches Using Mineralogy Tests with New Nano-Technology Modifications of Materials
” (paper presentation,
36th Southern Africa Transportation Conference
,
Pretoria, South Africa
, July 10–13,
2017
).
19.
W. J. vdM.
 
Steyn
, “
Intelligent Infrastructure and Data Science in Support of Road Maintenance
” (
paper presentation, Advances in Materials and Pavement Performance Prediction
,
Doha, Qatar
, April 16–18,
2018
).
20.
W. J. vdM.
 
Steyn
, “
Optimization of Gravel Road Blading
,”
Journal of Testing and Evaluation
47
, no. 
3
(
2019
):
2118
2126
,
21.
R.
 
Heikkilä
and
M.
 
Jaakkola
, “
The Efficiency of a 3-D Blade Control System in the Construction of Structure Layers by Road Grader Automated Design - Build of Road Construction in Finland
,” in
2002 Proceedings of the 19th International Symposium on Automation and Robotics in Construction (ISARC)
(
International Association for Automation and Robotics in Construction
,
2002
),
475
480
, https://doi.org/10.22260/ISARC2002/0074
22.
R.
 
Thompson
,
R.
 
Peroni
, and
A. T.
 
Visser
,
Mining Haul Roads: Theory and Practice
(
Boca Raton, FL
:
CRC Press
,
2019
).
23.
W. J.
 
Marais
,
R. J.
 
Thompson
, and
A. T.
 
Visser
, “
Managing Mine Road Maintenance Interventions Using Mine Truck On-Board Data
” (
paper presentation, Seventh International Conference on Managing Pavement Assets
,
Calgary, Alberta, Canada
, June 23–28,
2008
).
24.
T.
 
Swanepoel
, “
Deterioration Models and Market Linked Maintenance Triggers Based on Big Data for Unpaved Roads
” (M.Eng thesis,
University of Pretoria
,
2019
).
25.
Y.
 
Yao
,
Z.
 
Luo
,
S.
 
Li
,
T.
 
Shen
,
T.
 
Fang
, and
L.
 
Quan
, “
Recurrent MVSNet for High-Resolution Multi-View Stereo Depth Inference
,” in
2019 IEEE/CVF Conference on Computer Vision and Pattern Recognition (CVPR)
(
Piscataway, NJ
:
Institute of Electrical and Electronics Engineers
,
2019
),
5520
5529
, https://doi.org/10.1109/CVPR.2019.00567
26.
A.
 
Broekman
and
P. J.
 
Gräbe
, “
PASMVS: A Perfectly Accurate, Synthetic, Path-Traced Dataset Featuring Specular Material Properties for Multi-View Stereopsis Training and Reconstruction Applications
,”
Data in Brief
32
(October
2020
):
106219
,
27.
W. J. vdM.
 
Steyn
, “
Selected Implications of a Hyper-Connected World on Pavement Engineering
,”
International Journal of Pavement Research and Technology
13
(January
2020
):
673
678
,
28.
W. J. vdM.
 
Steyn
and
A.
 
Broekman
, “
Process for the Development of Multi-Scale Digital Twins of Local Roads—A Case Study
” (
paper presentation, GeoChina 2021 Conference Theme: Civil and Transportation Infrastructures: From Engineering to Smart and Green Life Cycle Solutions
,
NanChang, China
, September 18–19,
2021
).
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