The COVID-19 Impact on Supply Chain Operations of Automotive Industry: A Case Study of Sustainability 4.0 Based on Sense–Adapt–Transform Framework
Abstract
:1. Introduction
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- A quick response to explore the emerged situation for a company with an emphasis on negative effects on operations;
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- A development of transformational sustainable model/framework to implement in new realities in the post-COVID-19 era;
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- An adoption of the developed new sustainable model/framework based on best practices against the current business activities, identifying their priority areas for automotive supply chain sector.
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- How does the COVID-19 pandemic affect the company’s operational activities?
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- How do we develop a framework to survive in the VUCA environment?
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- What were the challenges that the car manufacturer faced during the pandemic?
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- What kind of countermeasures or best practices can be implemented in the automotive company to reduce the risk of potential crises and disruptions such as the COVID-19 pandemic?
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- H1: The COVID-19 pandemic caused several disruptions (shortage of raw materials/spare parts, availability of transportation, availability of labors, demand fluctuations, increase of sick leaves, new health and safety regulations) in the organization which negatively had an impact on operational activities.
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- H2: Employees do not feel safe working in the production area or office due to the possibility of COVID-19 infection.
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- H3: There is a correlation between working from home and reliability in supply chain operations.
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- H4: There is a correlation between operational readiness of the pandemic and implementing new technologies to support employees during the COVID time.
2. Literature Review
2.1. Impacts of the COVID-19 to Supply Chains across Countries
2.2. Best Sustainable Practices for Managing the COVID-19 Outbreak
3. Materials and Methods
3.1. Methodology Applied
3.2. Identification of Sampling Size
3.3. Descriptive Statistics
3.4. Construction of Questionnaire Survey
4. Results
- The analyzed company provided proper training and briefing to the employees. A total of 85.06% of the employees have received briefings or trainings regarding the COVID-19 precautions, and 14.94% of the employees were not aware of that. In detail, managerial employees were more fully aware of briefings than the employees.
- A total of 81.03% of the employees agreed that the company reacted quickly to COVID-19 measures. The rest of the employees (18.96%) did not agree in response to the measures of the COVID-19 pandemic.
- The working hours were affected for several reasons. The participants reported 50.57% as “reduced”, 19.54% as “no significant change“ and 29.89% as “increased”, regarding their working hours during the pandemic.
- A total of 68.97% of the employees reported “no significant change” in the scope of their duties, while 26.44% of them reported “increased” and 4.60% of the employees declared “reduced” in their assigned tasks.
- Most of the employees agreed that the company implemented new technologies/solutions during the pandemic.
- The sick leave rates are 41.38% of the employees accounted as “yes” and 58.62% answered as “no”. More than 50% of manufacturing shop floor employees responded with “yes”.
- Due to the pandemic situation, employees were starting to feel concern about losing their jobs more than managerial employees. A total of 88.28% of the manufacturing shop floor employees and 85.71% of the logistics or warehouse employees answered that they felt concerned about losing their job during the COVID-19 pandemic.
- Employees did not feel safe working in the production area. A total of 81.08% of the manufacturing shop floor employees, 78.57% of the logistics and warehouse employees and 14.29% of the managerial department employees worried about their work in the production area.
- A total of 70.27% of the manufacturing shop floor employees and 73.80% of the logistics and warehouse employees reported as they violated the social distance rule due to the necessities of working in the production area.
- According to responses, 77.65% of the employees responded with “decreased slightly” and 20.7% responded with “decreased significantly” for the production performance level during the pandemic.
- The company increased the stock level during the pandemic. A total of 66.28% of the employees responded with “increased slightly” and 22.09% with “not changed”.
- Demand fluctuation increased during the pandemic. A total of 84.48% of the employees responded with “increased” in demand variability and 10.34% with “remained stable”.
- Raw material and spare part shortages were the main disruptions during the pandemic. A total of 90.80% of the employees considered that the analyzed company’s operational activities performance has declined due to shortage of raw materials during the COVID-19 pandemic. The rest (9.20%) of the employees did not consider this effect.
- The company’s operations were affected by the restriction of transportation. A total of 92.53% of the employees have reported that operations have been affected by unavailability of transportation during the COVID-19 pandemic.
- Due to safety reasons such as sick leave, the availability of labor was reduced. A total of 92.53% agreed about the unavailability of labor during the pandemic. A total of 7.47% of the employees did not agree.
- The company applied a work from home approach to eligible employees due to work conditions. However, 45.40% of the employees did not work from home during the pandemic. The majority of them are manufacturing shop floors employees and logistics or warehouse employees.
- Managerial employees had few main concerns of working remotely during the pandemic. With 36.73% of responses, the most concern is “mental health of employees” and 26.53% is “lack of communication between teams”.
- New training module about cybersecurity implemented due to adaption of remote working conditions during the pandemic. A total of 100.00% of the managerial department employees agreed.
- The hiring process for a certain period during the pandemic. A total of 90.48% of the managerial department employees reported agreement.
- The company was not prepared well before the pandemic spread around the globe and Turkey. A total of 61.90% of the managers agreed that the risk management principles were less than projected before the pandemic situation.
- New automation technologies or tolls were implemented to increase productivity during the pandemic. A total of 54.55% of the employees agreed that 50–75% of operations were automated to prevent the loss of productivity of the organization during the pandemic.
5. Discussion
5.1. Interpretation of the Key Findings
- Shortage of raw material and spare parts: The production and supply disruptions have been driving by sourcing or material shortages especially on shortage of semi-conductor during the pandemic. However, the analyzed company was able to maintain its standards in production without suffering too much loss due to its market superiority and power.
- Availability of transportation: The closure of borders has triggered a series of events which had a significant impact on the logistic and transportation industry. Transportation modes and courier services have become less obligated by traditional practices; instead, alternative business models and practices become more acceptable during the pandemic. Unavailability of cargo transportation on the demand has led to a significant increase in lead times for the analyzed company. Therefore, production and supply operations have been affected by the unpredicted COVID-19 pandemic due to availability of transportation (92.53% of respondents) because of previously mentioned setbacks, e.g., border closure, restrictions on the import and export, shortage of truck drivers, demand fluctuations in several industries.
- Availability of labor: The governments and organizations have applied some countermeasures such as health and safety regulations and social distance rules to prevent the spread of coronavirus. A total of 92.53% of the employees, which consists of the majority of the manufacturing shop floor employees infected with COVID-19, work closer to each other in the production facility, while the managerial employees could work in more isolated areas such as office or at home. These regulations, social distance rules and increase in sick leaves cause a reduction in the number of people per shift in the production facility of the automotive manufacturer.
- Demand fluctuations: A total of 84.48% of the employees responded that demand variability is increased in the analyzed company. Because of the COVID-19 lockdown, demand for various services and goods in the industry has dropped significantly since March 2020 in tourism, automotive, energy, metal, electronics, and a few other non-food-related retail sectors [43]. Most of the industries were decreased based on changes in overall output, which are influenced by delays in raw material acquisition and government regulations, implementing curfews, halted production, closing offices, dealerships, and concerns about losing jobs as well as the fear of a recession.
5.2. Identified Risks and Problems in the Organization
- Supply risk: During the COVID-19 pandemic, there has been shortage on raw material and spare parts that affected the supply of the production. For instance, the supply of raw materials such as steel and certain plastics and semiconductors were affected during the pandemic time. Longer lead times have affected the supply of these materials which were used in the manufacturing of goods at the company’s production facility. However, the case company received the first indications of a shortage in semiconductors in December 2020. In the beginning of 2021, it was certain that the shortage of semiconductors will affect its operations in the following 12 months. In general, the company has avoided most of the disruptions by micromanaging them to sustain the operational activities in the production facility.
- Demand risk: The analyzed company experienced a significant change in demand during the pandemic. The fluctuation in demand causes uncertainty and makes it difficult to plan production. In the beginning of the pandemic, the organization faced a big drop in demand. Due to the demand and the spread of the COVID-19 virus, production was suspended for some time. During May, the demand started to recover. After the recovery in demand and production, it turned back to its operations faster than predicted.
- Manufacturing risk: At the beginning of the pandemic, coronavirus contamination rate was extremely high, and it was risky for the employees’ health and safety to continue operations in the facilities. The majority of the Chinese suppliers and some other suppliers from Asia started to halt their productions, which affected the essential components to be used in car manufacturing. These disruptions in both supply and demand have caused risk in the company’s production. The reduction in demand supply shortages led to lower volume and suspended production for some time, which resulted in a high labor cost compared to what was produced. The resource use was at a low level at the beginning of the COVID-19 pandemic due to demand and supply disruption. Moreover, the company has set priorities to have a safe workplace despite the pandemic with minimum impact on production. The company was following the governmental and local authorities to eliminate the risk of spreading the virus in the facility, to eliminate the high risk of sick leave rates, but also to create a safe workplace environment for employees’ health and safety.
- Data and Information risk: The most crucial part of the operation is correcting the information flow. However, during the pandemic, the disruption in the information flow at case study organization has been challenged. Because the company’s relationship with suppliers is mostly with tier 1 and tier 2 suppliers, the company needs to rely on them to manage upstream suppliers. It creates a lack of visibility in the supply chain operations such as delays in the information flow or information being lost. The consequences might cause damage to the company’s operation. Therefore, transparency is important to sense the risk and quick mitigation of the disruptions. The Industry 4.0 enabling technologies would help the company to prevent such risks in the future.
- Transportation risk: From an operational standpoint, the COVID-19 pandemic has had one of the greatest impacts on transportation for case study organizations. Due to COVID-19 government restrictions, the countries closed their borders, an act that caused the transport capacity of the shipping companies to limit their supply and delay for a certain time. As mentioned, the automotive industry is characterized by JIT, whose delivery times and accuracy are significantly important to consider. Transport problems have increased during the pandemic, transport prices have increased, and the closed borders have resulted in more extreme management when crossing borders.
- Financial risk: The financial risks of the company are associated with the decrease in sales and disruptions in supply and demand during the beginning of 2020 when the COVID-19 spread across the world and especially hit the company. In addition, due to semiconductor shortage, the company has been troubling to support the demand which created a bottleneck in production which limits the amount of production that the company produce and sell.
5.3. Countermeasures Taken to Implement Safe Working Environment in the Organization
- All of the production and rest areas, offices and meeting rooms have been disinfected. Work desks are also among the items that are disinfected every week. The office items such as tables, keyboards and personal items have been cleaned at least three times a day by the cleaning staff. Moreover, a new initiative rule was introduced for the cleaning staff to clean the handrails, door handles and seat armrests six times a day.
- Cleaning of public areas (e.g., office, cafeteria, toilet, and locker rooms) was scheduled on a regular basis.
- Cleaning protocols for production areas were developed on a daily and weekly basis.
- Hand disinfectant stations were installed in the facility.
- Daily health survey has been applied before entering the campus. If any of the survey questions were answered as “yes”, the health unit contacted the respondent and gave the right assistance. In any case, the health state of the employee was checked regularly.
- Noncontact temperature monitoring was established at the entrances to the campuses. The employees whose measurement results were above normal were referred to the medical center on the campus first, then to the appropriate hospital. The health status of the workers was followed.
- The visiting rules were updated as internal and external visits have been suspended. If it is essential to meet with an outside visitor, entry procedures were followed with the contest of the authorities. The visitors were only allowed in special designated areas.
- The social distancing rules were applied on seating places for all the locations in the workplaces and cafeterias. In addition, a project has been applied in the shared areas where the workers must scan the QR codes. When the workers arrived in the location associated for them, they were requested to notify the seating place by scanning the QR codes on the application. In case of any contamination, the employees were isolated.
5.4. Sense–Adapt–Transform Framework to Survive during COVID-19 Pandemic
5.5. Best Practice Actions
- Analyze and monitor information and data internally and externally: It is critical for the organization to sense the possible risk and/or disruptions as soon as possible; thus, it is essential to monitor and analyze certain information and data. It is a fact that companies are monitoring financial information frequently during the pandemic. In addition, some KPIs (e.g., inventory levels, downtime, lead time, etc.) can be beneficial to notice the disruptions in early stage such as COVID-19. It is critical for the company to quickly sense the disruption and have actions; only then can the company secure the operations in such disruptions. Therefore, case study company should focus on creating a team to monitor the further challenges in detail.
- Be flexible to change the operational processes due to any possible risks: Having flexible operations is proven to be a core characteristic of ensuring high resilience during crises such as COVID-19. According to the managerial department employees of the organization, flexibility in operational processes was the key part of mitigating the production loss due to COVID-19 pandemic. Such improvements allow the company to secure revenue loss and enable it to have a fast recovery. However, to make adjustment before the crises, it is vital that the company’s business units (e.g., production, research and development, supply chain operations, etc.) collaborate closely to share knowledge about the operations. It is also noted that not all parts of the process can be flexible. In such cases, countermeasures can be taken according to the possible risks.
- Analyze the governmental regulations and restrictions on a regular basis so that the operational activities can be managed and followed the requirements: In such crises as the COVID-19 pandemic, governments impose containment measures that companies must follow in their facilities. According to the governmental regulations, the company needs to adjust or manage the operational activities. Thus, it is crucial to follow the regulations and have the flexibility to transform the operations as requirements. Moreover, it is a fact that there are a lot of uncertainties of such regulations or policies that made it more challenging to manage the operational activities during the COVID-19 pandemic.
- Focus not only on internal operations, but also on suppliers, customers, and competitors to accelerate recovery: During the COVID-19 pandemic, most of the companies spent their time on their own operations, trying to solve the internal disruptions concerns. However, it is critical to monitor the status of stakeholder’s operations and financial position. Such risks or issues for suppliers or customers, especially the key suppliers for the operations, could create a harmful impact on the company’s operations. The case study company already experienced this concern with one of its suppliers. Due to shortage of semiconductor parts, production was halted for a certain period. Therefore, regular monitoring and improving communication with suppliers can help the company to notice such disruptions in time to mitigate them easily. Besides suppliers and customers, it is also beneficial to check how the competitors are mitigating the risks.
- Focus on employee’s health and safety as well as well-being, make sure employees are informed, involved, and motivated during such challenging times: The COVID-19 pandemic did not only affect the operational activities of the company, but it also affected the employees in several ways. During the pandemic, working from home became a new normal standard. However, not all the employees were eligible for this possibility due to the necessity of the work; some of them needed to work in the production area or warehouse. Therefore, the organization needs to ensure the safety of the employees who work in the facility. On the other hand, because of the survey and literature, working from home has resulted in increased mental health issues among the employees. Establishing a well-being program for the employees would help to motivate the employees to increase the productivity and efficiency during such crises. Moreover, the company should ensure that the employees are aware of what is happening and what decisions are made. Informing and involving people would increase their willingness to change and be motivated, which is a positive effect for the recovery of the company.
- Improve digitalization of information and data sharing: Information and data sharing is becoming more crucial to promote smooth communication and involvement in COVID-19 frameworks to expand participation and contributions from all departments in the organization. The operational performance originates from the valuable information gathered from data analysis, which enables quick decision making and execution. As a result, a continuous flow of data, analytics, and information is crucial for business output. The companies have internal interactions and external sources to collaborate and use open-source systems from the various sources. Therefore, technological implementations are necessary to preserve communication in any situation, which is extremely crucial when employees are working remotely. Any improvement on communication leads to better integration for organization’s goals [44,45]. Transform: The final phase of the framework is transforming the new initiatives in everyday process or activities which help to stabilize and increase productivity. It is important for the organization to adopt and transform sustainable practices to have long-term sustainability values.
- Re-design resilience supply chain management: The impact of the COVID-19 pandemic on the supply chain has shown the fact that the companies need to re-design their supply chain by identifying shorter lead times with low cost. Moreover, the pandemic proves that the dependence of the globalization of the supply chain is risky in such disruptions as the COVID-19 crisis. Therefore, the supply chain managers and leaders modified the supply chain in their organizations. The re-design process has included several different measures in different stages as shown in Table 5. The structure of supply chain design is significantly important in response to the COVID-19 crisis. From the findings, the company should reconsider to create regional supply chain structure rather than globalized structure. This improvement can reduce the risk of delay in raw material and spare parts. However, the short-term responses of COVID-19 disruptions were limited due to the characteristic of the automotive industry in terms of projects and model life cycle. As a result, upstream supply chain tiers are obligated to their contracts, and all adjustments to the supplier base must be authorized and confirmed by the OEMs. Therefore, it is challenging to quickly change the supplier selection and supply chain design in the short term. The COVID-19 disruption is likely to have a long-term impact on supplier selection and supply chain design. Furthermore, the aspect of increasing safety stocks was recognized as the best practice of the preparation, first response, and preparation of recovery. As was mentioned earlier, the automotive industry has lean supply chain practices in normal scenarios. However, during the COVID-19 pandemic, it can be adjusted to be in a safe zone to not have any demand and supply issues. It is consistent with the literature [46,47,48], which describes lean practices as sensitive to disruptions and safety stocks as a valuable strategy to dealing with uncertainty [49]. Moreover, an implementation of an improved simulation, forecasting, and monitoring system is beneficial for company’s operations to simulate the shutdown and disruptions scenarios. Forecasting has been seen as valuable for making strategic decisions. The impact of the COVID-19 disruptions exceeded the ability to foresee or plan for disruptions based on forecasts. This concern is also related to communication and information sharing with stakeholders. It is essential and urgent to implement the best practices, such as continued improvement, to increase communication among the stakeholders. This practice should be implemented from the preparation stage for long-term impact.
- Implementing Industry 4.0 enabling technologies: According to the literature review, the new enabling technologies and big data analytics enhance collecting and monitoring the data. Recently, companies have been focusing on implementation of Industry 4.0 (I4.0) enabling technologies (e.g., Internet of Things (IoT), Big data, Cloud computing, Cyber-physical systems (CPS), Simulations, Blockchain, Artificial Intelligence (AI), etc.) due to unexpected disruptions such as the COVID-19 pandemic [50,51,52,53,54,55]. The governmental restrictions and safety regulations caused halted productions, fluctuations in demand and supply, and problems with logistics. These concerns are possible to minimize by implementing Industry 4.0 enabling technologies. IoT may enable us to increase transparency and access to the information from the resources and thus improve productivity, production flexibility and waste minimization [56]. Big data approaches address the difficulty generated by a lack of robust data in relation to waste streams [57]. Therefore, it may enable us to improve customer profiling such as behaviors and trends, better understanding of the customer’s needs, and improved communication. Digital platforms and cloud manufacturing enable data to be simply accessed when it is needed; hence, it created a shared network of resources and capabilities. It enables us to build a long-term relationship and increases competitiveness by creating sustainable significance among the supply chain networks. The production and supply chain operations have been affected the most from the COVID-19 disruptions; hence, 3D virtual simulations may enable us to optimize the production planning and resource material flow and prepare the uncertainty in the market. Moreover, virtual development (VD) tools such as augmented reality (AR) and virtual reality (VR) may enable us to decrease costs, machine downtime and waste by using availability of real-time information. After the remote working option has been applied by many companies, new concerns were raised related to data protection. The current pandemic situation brought a new challenge to demonstrate the importance of the cyber-physical security systems (CPS) [58]. The organization must restructure the communication arrangements and security of organizational information by considering remote working condition. However, challenges of the implementation of Industry 4.0 technologies for sustainability are still ongoing as the research field is still evolving. These several challenges of sustainability benefits should be involved more in the customer’s strategy to have long-term sustainability impacts [59,60]. The response to question seven on the survey enabled the authors to analyze the status of implementing Industry 4.0 technologies in the organization. The findings from the survey and the interview were considered to implement new technologies for the opportunities and related sustainability benefits. Table 6 illustrates the opportunities of Industry 4.0 and potential benefits of sustainability 4.0 for each enabling technology. The ‘o’ represents the empirical data from the survey and the interview, and the ‘x’ indicates the recommended practice to be implemented in the company’s operations.
- Have a business continuity plan in place for possible disruptions in the future: In general, most of the companies acknowledge the significance and the advantage of having a back-up plan in place, but it showed that not all of them have a suitable or sustainable back-up plan or business continuity plan for possible disruptions. The organization should establish a strong business continuity plan, which will allow the company to react quickly and as an organized structure to any possible disruptions in the future. When a disruption occurs, the organization should examine if it is suitable and if adjustments are needed on the business continuity plan (BCP) according to the needs to strengthen the plan.
- Establish a good partnership and collaboration in the entire supply chain: It is critical to maintain a good collaboration environment between a company and its suppliers and customers in the entire supply chain, especially during times of crisis such as the COVID-19. Such a partnership environment might involve not just visibility and transparency between stakeholders and a company, but also supporting customers and suppliers when there is a need. Investment effort, time, and even money in a good partnership can be valuable to the company in the long run. It allows the company to avoid losing actors that might be difficult to replace within the supply chain in the future possible disruptions. According to the interviews and literature, effective communication between the stakeholders helps to mitigate the impact of the disruptions.
- Assess how suppliers and customers operated and how predictable they were during the crisis: During the sense phase, it was recommended to analyze and monitor suppliers and customers during the COVID-19 crisis to detect the problems of taking proper action at an early stage. After the COVID-19 pandemic or when the case study company has recovered fully from the disruptions, it would be important to analyze its suppliers and customers to identify which ones got through the pandemic without key issues and which ones had key issues which affected the company’s operations. It would be valuable to check how reliable the suppliers and/or customers were during the pandemic, if they were prepared or made any adjustments to their operations for future disruptions. According to this evaluation, strategic actions can be taken whether to keep working with certain suppliers/customers or look for more reliable ones. The best practice recommendations focused on the disruptions due to the COVID-19 pandemic on operational activities at its facility in three phases (e.g., sense, adapt and transform). The best practices represent a comprehensive overview of countermeasure actions that can be implemented in its operations to minimize the effects of any possible disruptions in future. The practices are focused on mitigating and managing the disruptions by looking at various business units of the organization at once.
5.6. Research Limitation
- Dishonest answers provided by respondents due to likely social bias, trying to protect privacy or some other reasons such as social desirability.
- Differences in understanding and interpretation. The context of questions may be misunderstood by respondents in surveys, which may result in false results.
- Unanswered questions in the surveys due to the overwhelming number of questions causing to response fatigue.
5.7. Further Research
6. Conclusions
- The pandemic effect resulted in significant disruptions over the analyzed company through various factors explained by shortage of raw materials and spare parts, availability of transportation, availability of workforce, demand fluctuations, sick leaves, new health and safety regulations.
- The crisis caused us to re-assess the needs of the company which reacted quickly to COVID-19 measures (over 80% respondents declared).
- The necessity to re-design resilience supply chain management by providing recovery plans (forecasting, supplier selection, simulation, monitoring) which consider different measures in different stages.
- Analyses of data gathered show that COVID-19 acted as an accelerator of digitalization [63]. It also uncovers opportunities of I4.0 and benefits of sustainability transition, when embodied within the companies’ need to be coupled with best practices.
- Internal challenges: Organizational procedures, strategies, cultural mindset, employee’s motivation, skills and well-being, financial structures, etc.
- External challenges: New restrictions and regulations, global policies, collaboration with stakeholders, etc.
- Technological challenges: Data/information sharing, digital maturity level, stakeholder involvement, internal and external collaboration, etc.
Author Contributions
Funding
Informed Consent Statement
Data Availability Statement
Conflicts of Interest
Appendix A. Semi-Structured Interview Process
- How does COVID-19 pandemic affect the company’s operational activities? What were the challenges that the manufacturer faced during the pandemic?
- What kind of countermeasures or best practices can be implemented in the automotive company to reduce the risk of potential crises and disruptions such as the COVID-19 pandemic?
- Please provide your title and years of experience in the company
- Please provide a brief description of your assignment and department
- 3.
- Has the car manufacturer prepared well before the pandemic spread all over the world to prevent possible disruptions?
- 4.
- What disruptions or challenges have you experienced in the company during the COVID-19?
- 5.
- How did you manage and mitigate these disruptions and/or risks at the automotive company?
- 6.
- How did you implement and inform the employees about the new regulations?
- 7.
- What are the biggest crises that the company faced during the COVID-19 pandemic?
- 8.
- Why do you think some automotive manufacturers have struggled/are struggling during the pandemic?
- 9.
- Could you give a few examples of countermeasures that you implemented in the company during the pandemic?
- 10.
- Did these countermeasures have helped the manufacturer to survive the pandemic?
- 11.
- How do you describe the risk management play in the car manufacturer?
- 12.
- How have the operational activities changed as compared to before and after theCOVID-19 pandemic?
- 13.
- Has there been any support from the local state or the government?
- 14.
- What are your major suggestions to be ready for future disruptions such as the COVID-19?
Appendix B. Questionnaire for Employees and Managers
- What is your assignment?
- Manufacturing shop floor employees
- Logistics and warehouse departments employees
- Managerial department employees
- Have you received any briefings or training regarding the COVID-19 precautions? * For managers: Have you prepared and provided any briefings to your employees regarding the COVID-19 precautions?
- Yes
- No
- Do you consider your organization responded quick and reasonably for the COVID-19 measures?
- Yes
- No
- Have you ever been assigned additional working hours or was your work limited (per week)?
- No significant change (−0.5) to 0.5 h
- Reduction (0.5–1 h 1–2 h 2–3 h 3–4 h more than 4 h)
- Increase (0.5–1 h 1–2 h 2–3 h 3–4 h more than 4 h)
- How has the scope of your tasks changed due to the pandemic?
- Decrease significantly
- Decrease slightly
- Not changed
- Increase slightly
- Increase significantly
- Has the pandemic affected organizational changes such as those listed below?
- Change of position
- Change of the scope of tasks—overall scope increased; new tasks added
- Change of the scope of tasks—overall scope increased; old tasks extended
- Change of the scope of tasks—overall scope not changed, no tasks added, no tasks limited
- Change of the scope of tasks—overall scope not changed, news tasks added, old tasks limited
- Change of the scope of tasks—overall scope decreased; old tasks limited
- Has the company implemented new technologies/solutions to support workers in the pandemic? Check all that apply.
- Internet of Things
- Cloud Computing
- System Integration
- Simulation
- Additive Manufacturing
- Autonomous Robots
- Big Data
- Augmented Reality
- Cybersecurity
- Group workers’ transportation
- Automated human temperature monitoring
- Dedicated scheduling of crews to limit contacts of workers
- Others—which?
- Have you ever had sick leave due to the COVID-19 infection?
- Yes
- No
- Have you ever felt concerned about losing your job due to a pandemic situation?
- Yes
- No
- Has your work performance been affected due to cancellation of daily team meetings? (internal)
- Yes
- No
- Do you feel that break management is executed properly?
- Yes
- No
- Do you feel safe working in the production area or office?
- Yes
- No
- Have you ever violated social distance due to the necessities of work?
- Yes
- No
- Do you have any other suggestions in addition to the existing precautions?
- Please write your answer.
- 14
- How do you rate the impact of COVID-19 on production performance?
- Decrease significantly
- Decrease slightly
- Not changed
- Increase slightly
- Increase significantly
- 15
- How would you rate the impact of employee motivation on production performance?
- Decrease significantly
- Decrease slightly
- Not changed
- Increase slightly
- Increase significantly
- 16
- How has the stock level been affected by the ongoing pandemic?
- Increased
- Decreased
- Remained stable
- 17
- Have the operational activities been affected by shortage of raw materials during pandemic?
- Yes
- No
- 18
- Have the operational activities been affected by a shortage of spare parts during the pandemic?
- Yes
- No
- 19
- Have the operational activities been affected by unavailability of transportation during the pandemic?
- Yes
- No
- 20
- Have the operational activities been affected by unavailability of labor during the pandemic?
- Yes
- No
- 21
- How has the level of demand been affected by the ongoing pandemic?
- Increased
- Decreased
- Remain stable
- 22
- Did you work from home during the COVID-19 pandemic?
- Yes
- No
- 23
- Have you received ICT support to be able to work from home conditions?
- Yes
- No
- 24
- Did you experience any difficulties while you work from home during the pandemic?
- Yes
- No
- 25
- Do you have any other suggestions in addition to the existing precautions for production and supply chain management?
- Please write your answer.
- 26
- How have you implemented the remote work option for employees who are eligible to?
- Full-time remote
- Partially remote
- Not at all
- 27
- Which of the following option(s) was/were the main concern of you regarding remote working of during pandemic?
- Mental health of employees
- Lack of communication between teams
- Become distanced from company values
- Employees’ overworking
- 28
- Have you ever implemented a new training module which is strictly connected with remote working?
- Yes
- No
- 29
- Have you stopped hiring at any time during the COVID-19 pandemic?
- Yes
- No
- 30
- How did the risk management principles of your organization come into use during pandemic situation?
- Less than projected
- As projected
- More than projected
- 31
- How has the situation of your company automated prevented the loss of productivity of organization during pandemic?
- 0–25%
- 25–50%
- 50–75%
- 75–100%
- 32
- Has the organization faced layoffs on a bigger scale than usual due to pandemic situation?
- Yes
- No
- 33
- Have you received any support package provided by the government? Please elaborate.
- Please write your answer.
- 34
- Do you have any other suggestions in addition to the existing precautions from a managerial point of view?
- Please write your answer.
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Socio-Economic Sustainability Practices | ||
---|---|---|
Best Practices | Operational Description | References |
Safety and health practices for employees and wellbeing of suppliers | To minimize the impact of the COVID-19 pandemic, companies should focus on mental health, health monitoring at site or offices, and the safety of their employees as well as wellbeing of suppliers during and after the COVID-19 outbreak. | [18,21,22] |
Training and skill improvement | The companies should provide tools or platforms to train the employees during and after the pandemic. | [9,18] |
Informing the employees for the new regulations | To reduce the transmission of the COVID-19, at workplace, knowledge management regarding social distance, personal cleanliness, and wearing masks in the workplace should be implemented. | [11,21,23] |
Diverse portfolio of suppliers | To reduce supply chain operation’s risks and future threats, the companies should reduce the reliance on a limited number of suppliers during and after the COVID-19. | [18,21,22] |
Remote working option and conditions | Companies should encourage remote working during the crises to ensure the employees’ health and safety. Moreover, the support and conditions for working remotely should be provided to employees for the ergonomic workplace. | [9,18,21] |
Improving the company’s or brand’s social image | Companies should employ and enhance the social sustainability initiatives to improve the firm’s image and prestige in society. | [24,25] |
Corporate social responsibility (CSR) programs | Companies should have a budget for the CSR programs to apply social and environmental initiatives for society. | [26] |
Eco-Environmental Sustainability Practices | ||
---|---|---|
Best Practices | Operational Description | References |
Training programs to enhance awareness of environmental sustainability | Training programs or social projects can motivate the employees and the community to enhance their awareness and knowledge about environmental sustainability to achieve better environmental performance, management and employees must be professionally trained in the significance of environmental policies. | [27] |
Develop strong legislation framework to cope COVID-19 | The strategic approach toward sustainability has expanded beyond what is demanded by law. During the COVID-19, tough regulations were followed at the organizations to implement sustainable practices in environmental aspect such as safe and clean operations. | [3,27] |
Remanufacturing and 3R approach (Reuse-Reduce-Recycle) | The availability of recycled materials and goods for reuse and remanufacture creates additional sources of supply and contributes to supply chain diversification. Moreover, companies should implement a 3R approach on products, materials, and resources within and across supply chains. Reduce resource wastage; encourage sufficiency; enhance reuse, recycling of products and components. | [28] |
Increasing the practices of internet of things (IoT) in operations | IoT and automation technologies will be prioritized to avoid the spread of future pandemics and improve supply chain efficiency. Because the use of robots in manufacturing transforms the supply chain to autonomous which guarantees safety, and boosts productivity during the COVID-19. | [26,28,29] |
Additive manufacturing practices | Additive manufacturing or 3D printing practices are cost efficient and increase production flexibility to support the sudden changes in supply and demand during the COVID-19 pandemic. | [30,31,32] |
Implementing new technologies to have sustainable operations | Innovative technology adoption (e.g., cyber-security, big data and analytics, block-chain, IoT, simulation, etc.) is essential for the companies to implement in their operations to reduce the operating costs, improve service, increase efficiency. | [29,33,34,35,36] |
Risk Priority | Risk Identification Group |
---|---|
High | Supply risk Demand risk Manufacturing risk Information risk |
Medium | Transportation risk |
Low | Financial risk |
Identified Problems at the Organization during the COVID-19 Pandemic | Improvement Actions | ||||||||||
---|---|---|---|---|---|---|---|---|---|---|---|
Re-Design Supply Chain | Industry 4.0 | Heathy and Safety | Risk Management | Automated Production | Forecasting and Monitoring | Employee’s Well-Being | Sustainable Production | Trainings and Skills | Engagement | Communication | |
Concern of health and safety of employees | x | x | x | x | x | x | x | x | x | ||
New COVID-19 regulations | x | x | x | x | x | x | |||||
Shortage of raw materials and spare parts | x | x | x | x | |||||||
Unavailability of transportation | x | x | x | x | |||||||
Unavailability of workforce | x | x | x | x | x | x | x | x | |||
Halted production | x | x | x | x | x | x | x | x | |||
Semi-automated production | x | x | x | x | x | x | x | x | |||
Demand fluctuations | x | x | x | x | |||||||
Limitation of remote work | x | x | x | x | x | x | x | ||||
Well-being of employees | x | x | x | x | x | ||||||
Lack of risk management policy | x | x | x | ||||||||
Lack of new technology infrastructure | x | x | x | x | x | x | x | x |
Re-Design Resilience Sustainable Operations Measures | Stage of Disruptions during the COVID-19 | ||||
---|---|---|---|---|---|
Preparation | First response | Preparation for Recovery | Recovery | Long-Term | |
1.1. Resilience-oriented supplier selection | x | x | x | ||
1.2. Resilience-oriented supply design | x | x | x | x | x |
1.3. Redundancy (reserve inventory) | x | x | x | x | x |
1.4. Simulation, forecasting model | x | x | x | x | x |
1.5. Disaster recovery plan in future | x | ||||
2.1. Information and data sharing | x | x | x | x | x |
2.2. Internal and external collaboration | x | x | x | x | x |
2.3. Risk management principles | x | x | x | x | x |
3.1. Create agile operations | x | x | |||
3.2 Manufacturing flexibility | x | x | x | x | |
3.3. Enhance supply chain visibility | x | x | x | ||
3.4. Logistics flexibility | x | x | x | x | |
3.5. Use of control information system | x | x | x | ||
4.1. Creating resilience awareness among employees | x | x | x | x | |
4.2. Continuity management | x | x | x | x | x |
4.3. Risk identification and assessment | x | x | x | x | |
4.4. Cross-training of employees | x | ||||
5.1. Industry 4.0 enabling technologies | x | x | |||
5.2. Data analytics, machine learning, AI | x | x | x |
Industry 4.0 Enabling Technologies | Opportunities of Industry 4.0 | Benefits of Sustainability 4.0 | ||||||||
---|---|---|---|---|---|---|---|---|---|---|
Production Flexibility | Process Efficiency | Prototyping Speed | Machine Set Up | Stakeholder Relations | Resource Efficiency | Working Conditions | Extended Lifetimes | Production Waste | CE best Practices | |
Digital platforms | x | x | x | x | x | x | ||||
Additive manufacturing | x, o | x, o | x | x | x, o | x, o | x, o | |||
Internet of Things (IoT) | x, o | o | x, o | x | x, o | x | x | x, o | x, o | |
Big data analytics | x | x | x | x, o | x | x | x | x, o | x | |
Cyber physical security | x, o | x, o | x | x | x | x, o | x | x | x | |
Artificial Intelligence (AI) | x, o | x | x | x | x | x | x | |||
Machine Learning | x | x, o | x | x, o | x | x | x | |||
Virtual development (VD) | x | x | x | x | x | x | x | x | x | x |
Blockchain | x | x | x | x | x | |||||
Cloud computing | ||||||||||
Simulation models | x | x, o | x | x | x | |||||
Autonomous robots | x, o | x, o | x, o | x, o | x, o | x | x, o | x, o | x | |
Smart maintenance | x, o | x | x | x |
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Eldem, B.; Kluczek, A.; Bagiński, J. The COVID-19 Impact on Supply Chain Operations of Automotive Industry: A Case Study of Sustainability 4.0 Based on Sense–Adapt–Transform Framework. Sustainability 2022, 14, 5855. https://doi.org/10.3390/su14105855
Eldem B, Kluczek A, Bagiński J. The COVID-19 Impact on Supply Chain Operations of Automotive Industry: A Case Study of Sustainability 4.0 Based on Sense–Adapt–Transform Framework. Sustainability. 2022; 14(10):5855. https://doi.org/10.3390/su14105855
Chicago/Turabian StyleEldem, Burak, Aldona Kluczek, and Jan Bagiński. 2022. "The COVID-19 Impact on Supply Chain Operations of Automotive Industry: A Case Study of Sustainability 4.0 Based on Sense–Adapt–Transform Framework" Sustainability 14, no. 10: 5855. https://doi.org/10.3390/su14105855