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Frontiers of Engineering Management

ISSN 2095-7513

ISSN 2096-0255(Online)

CN 10-1205/N

Postal Subscription Code 80-905

Front. Eng    2023, Vol. 10 Issue (1) : 5-19    https://doi.org/10.1007/s42524-022-0229-x
RESEARCH ARTICLE
Digitalization for supply chain resilience and robustness: The roles of collaboration and formal contracts
Ying LI1, Dakun LI1, Yuyang LIU1, Yongyi SHOU2()
1. School of Management, Shandong University, Jinan 250100, China
2. School of Management, Zhejiang University, Hangzhou 310058, China
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Abstract

Black swan events such as the coronavirus (COVID-19) outbreak cause substantial supply chain disruption risks to modern companies. In today’s turbulent and complex business environment, supply chain resilience and robustness as two critical capabilities for firms to cope with disruptions have won substantial attention from both the academia and industry. Accordingly, this study intends to explore how digitalization helps build supply chain resilience and robustness. Adopting organizational information processing theory, it proposes the mediating effect of supply chain collaboration and the moderating effect of formal contracts. Using survey data of Chinese manufacturing firms, the study applied structural equation modelling to test the research model. Results show that digitalization has a direct effect on supply chain resilience, and supply chain collaboration can directly facilitate both resilience and robustness. Our study also indicates a complementary mediating effect of supply chain collaboration on the relationship between digitalization and supply chain resilience and an indirect-only mediation effect on the relationship between digitalization and supply chain robustness. Findings reveal the differential roles of digitalization as a technical factor and supply chain collaboration as an organizational factor in managing supply chain disruptions. Paradoxically, formal contracts enhance the relationship between digitalization and supply chain resilience but weaken the relationship between supply chain collaboration and supply chain resilience. The validation of moderating effects determines the boundary conditions of digitalization and supply chain collaboration and provides insights into governing supply chain partners’ behavior. Overall, this study enhances the understanding on how to build a resilient and robust supply chain.

Keywords digitalization      supply chain      resilience      robustness      collaboration      formal contract     
Corresponding Author(s): Yongyi SHOU   
About author:

Changjian Wang and Zhiying Yang contributed equally to this work.

Just Accepted Date: 21 December 2022   Online First Date: 09 February 2023    Issue Date: 02 March 2023
 Cite this article:   
Ying LI,Dakun LI,Yuyang LIU, et al. Digitalization for supply chain resilience and robustness: The roles of collaboration and formal contracts[J]. Front. Eng, 2023, 10(1): 5-19.
 URL:  
https://academic.hep.com.cn/fem/EN/10.1007/s42524-022-0229-x
https://academic.hep.com.cn/fem/EN/Y2023/V10/I1/5
Fig.1  Conceptual model.
Freq.Percentage (%)
Industry
Publishing and printing31.03
Electronic and electrical equipment7425.52
Textile and apparel124.14
Arts and crafts31.03
Chemicals and petrochemicals144.83
Building materials144.83
Metal, mechanical, and engineering5920.35
Wood and furniture51.72
Food beverage and alcohol186.21
Toys31.03
Rubber and plastics113.79
Pharmaceutical and medical144.83
Equipment5820.00
Jewelry20.69
Firm sales (million yuan)
≤ 207024.14
21–504013.79
51–1006020.69
101–4006923.79
> 4005117.59
Number of employees
≤ 5093.10
51–1003411.73
101–3006622.76
301–5005518.97
501–10006121.03
1001–2000175.86
> 20004816.55
Tab.1  Sample profile
Constructs and itemsFactor loadingsSDT-statistics
Digitalization (DT) (Cronbach’s α = 0.753; CR = 0.835; AVE = 0.503)
DT1Our firm adopts digital technologies to collect data from different sources0.6870.04814.278
DT2Our firm adopts digital technologies to connect business processes0.6680.04315.623
DT3Our firm adopts digital technologies to promote information exchange0.6840.04515.268
DT4Our firm adopts digital technologies to build customer interface0.7470.03322.678
DT5Our firm adopts digital technologies to connect supply chain partners0.7560.03521.752
Supply chain collaboration (SCC) (Cronbach’s α = 0.753; CR = 0.835; AVE = 0.503)
SCC1Our firm sets common goals with supply chain partners0.7060.04117.288
SCC2Our firm shows mutual support with supply chain partners0.6810.04415.640
SCC3Our firm engages in joint problem solving with supply chain partners0.6970.03321.260
SCC4Our firm shows understanding of supply chain partners’ strengths and weaknesses0.6950.03718.865
SCC5Our firm engages in regular and collaborative communication with supply chain partners0.7650.03223.705
Supply chain resilience (SCRES) (Cronbach’s α = 0.805; CR = 0.865; AVE = 0.561)
SCRES1Our firm can predict supply chain disruption risk occurrence0.7590.02926.166
SCRES2Our firm develops contingency plans to prepare for potential supply chain disruptions0.7520.03322.974
SCRES3Our firm can prevent disruptions through forecasting and planning0.7170.03520.684
SCRES4Our firm can adapt to supply chain disruptions by quickly re-engineering the processes0.7610.02926.033
SCRES5Our firm can respond quickly to SC disruptions0.7540.03124.276
Supply chain robustness (SCROB) (Cronbach’s α = 0.674; CR = 0.799; AVE = 0.501)
SCROB1Operations would be able to continue0.8120.02730.467
SCROB2We would still be able to meet customer demand0.6960.03818.136
SCROB3Our firm can avoid losses caused by supply chain risks0.6330.05311.857
SCROB4Performance would not deviate significantly0.6770.05512.393
Formal contracts (FC) (Cronbach’s α = 0.767; CR = 0.843; AVE = 0.519)
FC1Our firm has specific and detailed contractual agreements with supply chain partners0.7420.03719.967
FC2The contract specifies and details the roles and responsibilities of supply chain partners0.7450.03322.540
FC3The contract specifies and details how to deal with unexpected events0.6890.04515.286
FC4The contract specifies and details the penalties for under-performance0.7810.02828.181
FC5The contract specifies and details how to deal with disputes and conflicts0.6380.04314.750
Tab.2  Reliability and validity
ConstructsDTSCCSCRESSCROBFC
DT0.709
SCC0.4280.709
(0.559)
SCRES0.4840.5750.749
(0.617)(0.726)
SCROB0.3160.5420.6510.708
(0.431)(0.721)(0.876)
FC0.3140.6390.6390.4830.721
(0.411)(0.835)(0.806)(0.643)
Tab.3  Correlations, square root of the AVE values, and the HTMT values
ItemsDTSCCSCRESSCROBFC
DT10.6870.2870.3270.1930.208
DT20.6680.2640.3190.2000.199
DT30.6840.2520.3530.2010.202
DT40.7470.3850.3470.2690.246
DT50.7560.3130.3710.2490.252
SCC10.3030.7060.3580.4010.356
SCC20.2770.6810.3370.3280.420
SCC30.3610.6970.4310.3980.432
SCC40.2580.6950.4190.3840.500
SCC50.3100.7650.4760.4050.547
SCRES10.3760.4800.7590.4840.499
SCRES20.3960.4380.7520.4470.517
SCRES30.3490.4270.7170.4950.467
SCRES40.3750.4460.7610.5090.476
SCRES50.3050.3440.7540.5100.419
SCROB10.2760.5210.5270.8120.430
SCROB20.2110.3800.4690.6960.401
SCROB30.1970.2930.3870.6330.223
SCROB40.1970.2750.4480.6770.258
FC10.2230.5160.4960.3580.742
FC20.2730.4590.4730.3200.745
FC30.2160.4640.3970.3340.689
FC40.2390.4940.5050.3740.781
FC50.1770.3600.4190.3500.638
Tab.4  Cross loadings
Fig.2  Structural model results for direct effects.
ConstructsR2Q2
DT
SCC0.1830.084
SCRES0.4010.206
SCROB0.3100.134
Tab.5  Quality of the structural model
PathsCoefficient (β)SDT-statisticsP-valuesInference
H1a. DT→SCRES0.288***0.0594.8640.000Supported
H1b. DT→SCROB0.0840.0561.4930.135Not supported
H2a. SCC→SCRES0.450***0.0538.5520.000Supported
H2b. SCC→SCROB0.496***0.0529.6200.000Supported
H3. DT→SCC0.428***0.0547.9880.000Supported
Firm ownership→SCRES?0.0030.0460.0700.945
Firm ownership→SCROB0.0330.0550.6050.545
Firm size→SCRES0.0150.0530.2780.781
Firm size→SCROB0.0880.0601.4730.141
Tab.6  Direct effect testing results
Specific indirect pathsCoefficient (β)SDT-statisticsP-valuesInference
H4a. DT→SCC→SCRES0.1930.0345.6240.000Supported
H4b. DT→SCC→SCROB0.2120.0365.8690.000Supported
Tab.7  Mediating effect testing results
Fig.3  Structural model results for moderating effects.
Moderating effect pathsCoefficient (β)SDT-statisticsP-valuesInference
H5a. DT*FC→SCRES0.129*0.0622.0670.039Supported
H5b. DT*FC→SCROB0.0920.0481.9130.056Not supported
H6a. SCC*FC→SCRES?0.104*0.0492.1470.032Supported
H6b. SCC*FC→SCROB?0.0790.0551.4300.153Not supported
Tab.8  Moderating effect testing results
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https://doi.org/10.1108/IJPDLM-01-2020-0038
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