Review on Sensing Technology Adoption in the Construction Industry
Abstract
:1. Introduction
2. Current Status of Sensing Technologies in Construction
2.1. Methods and Material for Literature Review
2.2. Sensing Technologies in Construction Safety Enhancement
2.2.1. Location-Based Sensing Technologies
Global Positioning System (GPS) Technology
Radio Frequency Identification (RFID) Technology
Ultra-Wideband (UWB) Technology
2.2.2. Vision-Based Sensing Technologies
2.2.3. Wireless Sensor Networks (WSN) Technologies
2.3. Sensing Technologies in Occupational Health and Safety (OHS) Enhancement
2.3.1. Physiological Sensors
2.3.2. Integrated Sensors in Personal Protective Equipment (PPE)
2.4. Sensing Technologies in Construction Quality Enhancement
2.5. Sensing Technologies in Construction Productivity Enhancement
2.5.1. Location-Based Sensing Technologies to Improve Productivity
2.5.2. Vision-Based Sensing Technologies to Improve Productivity
3. Factors in the Determination of Sensing Technologies Adoption
3.1. Perceptions of Construction Managers toward Sensing Technologies
3.1.1. Benefits of Sensing Technologies Adoption
3.1.2. Barriers to Sensing Technologies Adoption
3.2. Acceptance of Construction Workers toward Sensing Technologies
4. Future Research
5. Conclusions
Author Contributions
Funding
Data Availability Statement
Conflicts of Interest
References
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Benefit | Reference |
---|---|
proximity detection of workers on foot and construction equipment | [26] |
unsafe proximity detection identification | [28,29] |
construction equipment management | [30,31] |
situational awareness improvement of on-site workers | [32] |
construction resources identification | [33] |
enhancement of tower crane navigation systems | [34] |
construction equipment activity recognition | [35,36] |
Benefit | Reference |
---|---|
risky behavior of workers recognition | [41] |
accidents and collision prevention | [42,43,44] |
proximity detection alert systems | [45] |
storage of safety information | [46] |
controls of workers and vehicles to specific positions | [47] |
indoor localization of mobile and stationary construction resources | [48,49] |
detection of construction workers localization | [50] |
Benefit | Reference |
---|---|
improvement on a communication platform for tower crane operations | [61,81,82] |
environmental and structural health monitoring | [78,83,84] |
recognition and detection of construction operation | [85,86] |
access control of restricted areas and examination of proper personal protective equipment | [87] |
automated monitoring of construction processes | [88,89] |
Method | Reference |
---|---|
object detection methods | [95] |
movement prediction of workers | [90] |
posture estimation and classification | [96] |
identification of potential bodily work-related ergonomic risks | [91] |
identification of unsafe behavior | [97,98] |
Benefit | Reference |
---|---|
construction waste management and machinery maintenance records | [13] |
identification of construction material and resources | [33] |
recognition of construction staff location | [131] |
automatic progress reports | [134,135] |
operational cost reduction in precast construction supply chain | [136] |
material localization, monitoring, and tracking | [137,138,139] |
active information flow between construction progress and material monitoring staff | [140,141] |
applications in time and schedule management | [142] |
supply network visibility | [143,144] |
asset management and supply chain management | [145,146] |
Benefit | Reference |
---|---|
cost reduction | [164,165,166] |
time-saving and improved productivity | [167,168,169] |
reduced risk of injury and illness | [170] |
increase employees’ wellness and satisfaction | [171] |
better document quality | [172,173] |
better facilities management | [174] |
process and performance improvement | [175,176] |
improved leadership and decision support systems | [177] |
mechanical enhancement on concrete printing | [178,179,180] |
improved quality of construction project delivery | [181] |
Barriers | Reference | Barriers | Reference |
---|---|---|---|
cost-related | people-related | ||
operating cost | [164] | lack of well-trained staff | [167] |
cost of training and employing professionals | [177] | compliance of employees | [166] |
cost of maintenance | [184] | legal or ethical concerns | [171] |
implementation cost | [185] | resistance to change | [182] |
uncertain cost-benefit relation | [186] | company culture | [187] |
lack of government support | [188] | ||
technology-related | other barriers | ||
operational difficulties | [19,189] | manufacturing requirements | [18] |
power supply issues | [174] | change in the process | [182] |
data management issues | [177] | site-related issues | [183] |
lack of proper IT infrastructure | [182] | temporary nature of construction | [187] |
technology immaturity | [183] |
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Arabshahi, M.; Wang, D.; Sun, J.; Rahnamayiezekavat, P.; Tang, W.; Wang, Y.; Wang, X. Review on Sensing Technology Adoption in the Construction Industry. Sensors 2021, 21, 8307. https://doi.org/10.3390/s21248307
Arabshahi M, Wang D, Sun J, Rahnamayiezekavat P, Tang W, Wang Y, Wang X. Review on Sensing Technology Adoption in the Construction Industry. Sensors. 2021; 21(24):8307. https://doi.org/10.3390/s21248307
Chicago/Turabian StyleArabshahi, Mona, Di Wang, Junbo Sun, Payam Rahnamayiezekavat, Weichen Tang, Yufei Wang, and Xiangyu Wang. 2021. "Review on Sensing Technology Adoption in the Construction Industry" Sensors 21, no. 24: 8307. https://doi.org/10.3390/s21248307