Risk Management for Large-Scale Events: Identification, Evaluation, and Response Strategies

Since ancient times, humans have organized large-scale events to commemorate and celebrate important moments in life: from the Dionysian festivals of ancient Egypt to various European art festivals, from the ancient Olympics to the three major modern sports events, social life is filled with a rich variety of activities. In the new century, large-scale events have received even greater attention, with official cultural and art festivals emerging one after another, and corporate exhibitions and investment promotion activities taking the stage. When large-scale events are well-executed, they can generate positive social, cultural, economic, and political impacts, yielding both social and economic benefits. However, if poorly organized or hit by unexpected incidents, the consequences can be unimaginable. How to avoid such problems, identify potential risks, and take appropriate measures is an issue worthy of serious attention.

I. Current State of Risk Management for Large-Scale Events in China

Risk management for large-scale events in China is largely experience-based, lacking advanced theoretical guidance. Although standardized documents on risk management have been developed, they are mainly applied in industrial and commercial enterprises, with limited use in event projects. The first series of books on event project management was published in October 2002, including International Large Event Management, Project Fundraising Event Management, and Large Event Project Management, which were pioneering in the field but lacked systematic research on risk management. Government departments implement a "whoever approves is responsible" system for risk-bearing entities in event projects. Overall, China's event industry started relatively late in applying modern risk management concepts and techniques, and there remains a significant gap compared to developed countries, mainly reflected in the following aspects:

1. Incomplete internal control systems and imperfect risk management organizational structures, with no independent risk management department or system in the modern sense. This lags behind international requirements for internal control systems in event management organizations.

2. Insufficient quantitative risk management. Quantitative management and modeling are important trends in risk management technology in Western developed countries. Currently, China's event industry is still very weak in quantitative risk management.

3. A severe shortage of management talent. Event project risk management is a highly technical and complex emerging management discipline, requiring practitioners to possess high qualifications and undergo rigorous professional training; otherwise, they will struggle to understand the nature of project risks and even more so to take appropriate preventive measures.

4. Underdeveloped intermediary service institutions in China, with few agencies capable of undertaking event projects and effectively managing risks.

II. Risk Identification and Evaluation for Large-Scale Events

Risk management aims to help event organizers maximize benefits under the lowest risk, or minimize risk under a given benefit level. Through this mechanism, major risks can be identified and assessed, and corresponding countermeasures can be formulated and implemented to keep risks within acceptable limits. Risk management is a vital component of large-scale event project management, and establishing an efficient risk management system is the foundation for the healthy and sound development of the event industry.

Risk identification involves determining risk sources, conditions under which risks arise, describing risk characteristics, and identifying possible events that may affect the project. The first step in risk identification is processing information sources, which can be objective or subjective: objective sources include past event project management experience and documents describing current project progress, such as WBS plan analysis; subjective sources are based on the judgment of experienced experts. Risk identification methods include:

(1) Expert Opinion Method. This uses experts' experience and judgment to obtain forecast values. Specific forms include: ① Group discussion: collective discussion, exchange of opinions, complementing each other's strengths, and leveraging collective wisdom to make predictions. ② Individual estimation aggregation: each expert independently provides a forecast, and the project manager synthesizes the conclusions. ③ Delphi method: developed by the RAND Corporation in the late 1940s, using systematic procedures with anonymity and iteration. An expert panel is formed, survey outlines and background materials are submitted to experts, and opinions are solicited in rounds before aggregating the forecast results.

(2) Flowchart Method. This method first establishes a general flowchart and sub-flowcharts for the project, which are used to display all activities in project implementation. Flowcharts can be represented using network diagrams or WBS (Work Breakdown Structure).

(3) Site Inspection Method. During the risk identification stage, the risk project manager's on-site inspection is crucial. It can detect risks that technical analysis cannot predict. Especially for cultural performance projects, the risk manager should directly observe various facilities and operations on site to identify more and finer potential risks.

(4) IT Modeling Method. This method is suitable when the relationships between different factors are clear. It requires careful study of options and uncertainties and relies on reliable quantitative data. The disadvantage is that new suggestions may produce misleading results, and credibility is uncertain.

(5) Regression Analysis Method. This predicts the future based on analysis of past experience. Although this method does not provide high absolute risk levels, it can identify certain risks that other methods cannot detect.

(6) Environmental Analysis Method. The project environment includes event participants, performers, competitors, and government regulators. When analyzing the project environment, the focus should be on the characteristics and stability of their interrelationships.

After using the above methods for risk identification, the results should be organized and documented in written form to prepare for the remaining steps of risk analysis and risk management. The outcomes of risk identification include: risk sources and conditions, risk classification or grouping, and risk symptoms, which should be as detailed as possible. Then, risk evaluation is conducted, shifting attention to the overall risk across all project phases, the interactions and effects among risks, their impact on the overall project, and the project entity's risk tolerance.

III. Risk Response Decisions for Large-Scale Events

In event project risk management, there are generally four risk response decisions: risk avoidance, risk mitigation, risk transfer, and risk retention. Each has its own focus and advantages and disadvantages, so the specific method adopted in practice depends on the specific circumstances of the project risk.

(1) Risk Avoidance. Avoidance can eliminate risk factors; abandoning the project is the most thorough way to avoid risk. However, complete abandonment also brings negative effects, such as losing development opportunities and stifling project creativity. Changing or abandoning an ongoing project incurs extremely high costs, so avoidance strategies are best adopted before the project is implemented.

(2) Risk Mitigation. The goal of this strategy is to reduce the likelihood of risk occurrence or mitigate adverse impacts. Methods include education and procedural approaches. Education involves training relevant personnel on risk and risk management to reduce the incidence of project risks caused by improper behavior. Procedural methods use institutional norms to regulate project activity management and reduce unnecessary losses. Various management plans, policies, and supervision and inspection systems generally reflect the objective laws of project activities; violations can lead to major mistakes. Additionally, rationally designing the project structure, increasing the number of alternative action plans, and improving the reliability of project components can reduce the incidence of risks.

(3) Risk Transfer. Risk transfer, also known as risk sharing, aims to transfer part of the loss to a third party outside the project through contracts or agreements in the event of a risk occurrence. It is important to note that risk transfer cannot reduce the probability of risk occurrence or the total losses caused by the risk. The cost of this strategy depends on the magnitude of the risk. This strategy can be adopted when project resources are limited and mitigation or prevention strategies cannot be implemented, or when the risk frequency is low but potential losses or damages are significant. Risk transfer mainly includes sale, subcontracting, exculpatory contracts, insurance, and guarantees.

(4) Risk Retention. Risk retention means that the enterprise or project itself bears the risk, funded through its own risk retention fund, so risk retention can be viewed as a financial strategy. The criteria for deciding whether to retain project risk are as follows: the retention cost is lower than the insurer's additional premium; the project's expected loss is lower than the insurance company's estimate; the project has many risk units; the maximum potential loss and maximum expected loss are relatively small; the project has the ability to bear the expected maximum loss in the short term; and costs and losses are distributed over a long period, resulting in significant opportunity costs.