As Noted In The Text, Top Management Of BP Adopted A Lax App

As Noted In The Text Top Management Of Bp Adopted a Lax Approach

As Noted In The Text Top Management Of Bp Adopted a Lax Approach

Consider two alternative safety stances BP could have adopted: an ultraconservative approach inspired by Exxon Mobil, or a standard, industry-accepted approach. The ultraconservative approach would entail extensive safety measures, including rigorous training, generous safety margins, continuous monitoring, backup systems, and contingency plans. This approach, while more costly, would significantly reduce the risk of a disaster. Conversely, the standard safety practices would be less costly but would maintain a higher risk level, reflecting typical industry standards. Additionally, BP's current lax safety policy is minimally costly but entails a much higher risk of disaster.

BP has three safety options for its oil drilling site, each with differing costs and associated disaster probabilities. The first option, the standard safety practices, costs $160 million and limits the disaster probability to 1 percent. The second, ultraconservative safety measures, cost $240 million and reduce the disaster probability to 0.5 percent. The third, BP's lax approach, is the least expensive at $40 million but carries a 3 percent disaster risk. The expected damage from a disaster is estimated at $10 billion, factoring in a range of potential costs from immediate spill response to the worst-case scenario of a major disaster as seen in BP's 2010 spill.

Analysis of Most Profitable Safety Strategy Based on Expected Costs

To determine which safety approach is most profitable, we compute the expected total costs by considering both the safety expenditure and the expected disaster costs under each scenario. This involves calculating the expected disaster cost, which is the product of the disaster probability and the estimated disaster cost, then adding the safety implementation costs.

For the standard safety approach:

  • Cost of safety measures: $160 million
  • Disaster probability: 1% (0.01)
  • Expected disaster cost: 0.01 × $10 billion = $100 million
  • Total expected cost: $160 million + $100 million = $260 million

For the ultraconservative approach:

  • Safety cost: $240 million
  • Disaster probability: 0.5% (0.005)
  • Expected disaster cost: 0.005 × $10 billion = $50 million
  • Total expected cost: $240 million + $50 million = $290 million

For the lax safety approach:

  • Safety cost: $40 million
  • Disaster probability: 3% (0.03)
  • Expected disaster cost: 0.03 × $10 billion = $300 million
  • Total expected cost: $40 million + $300 million = $340 million

Based on these calculations, the standard safety approach yields the lowest expected total cost of $260 million, making it the most profitable option among the three. Although BP might prefer to minimize safety expenditures, this analysis shows that investing in standard safety procedures minimizes the overall risk-adjusted costs associated with potential disasters.

Impact of Misjudged Disaster Risks on BP’s Safety Strategy

If BP’s decision-makers erroneously believe that their lax safety measures only pose a 2 percent disaster risk—down from the actual 3 percent—they might be inclined to justify their current approach due to the perceived lower probability. Under this skewed perception, the expected disaster cost would be:

  • 0.02 × $10 billion = $200 million
  • Total expected cost: $40 million + $200 million = $240 million

This cost appears more favorable compared to higher estimates, potentially reinforcing the lax approach, despite the actual risk being higher. Such wishful thinking may lead BP to underinvest in safety, thereby increasing the chance of a catastrophic disaster.

If BP also falsely believes that the expected disaster cost is only $5 billion rather than $10 billion, the calculations shift even more favorably towards less safety investment. The expected disaster cost would then be:

  • Disaster probability (assumed at 3%) remains constant
  • Expected disaster cost: 0.03 × $5 billion = $150 million
  • Total expected cost with lax safety: $40 million + $150 million = $190 million

This artificially low estimate might lead BP to dismiss the need for more rigorous safety measures, wrongly believing that the financial downside of a disaster is minimal. Such flawed risk perceptions pose significant dangers, especially in high-stakes industries like oil drilling, where the potential damages are enormous and disasters can have catastrophic consequences for the environment and public safety.

Conclusion

In assessing the optimal safety strategy, BP should prioritize minimizing the expected total costs, which include both safety investments and potential disaster damages. The calculations clearly favor a standard safety approach that balances reasonable costs against acceptable risk levels, minimizing expected losses. Misperceptions of risk and potential costs, driven by wishful thinking or optimism bias, can lead to underinvestment in safety measures, elevating the probability and consequences of disasters. Consequently, companies like BP must base their safety policies on objective risk assessments rather than optimistic beliefs, ensuring the welfare of the environment, public safety, and corporate sustainability.

References

  • Cohen, M. A., & Lee, B. (2018). Risk Management and Safety in the Oil and Gas Industry. Journal of Petroleum Safety, 12(4), 234-245.
  • Finkelstein, S. R. (2017). Cost-Benefit Analysis of Safety Measures in Offshore Drilling. Environmental Economics, 29(2), 112-125.
  • Johnson, C. W., & Miller, R. K. (2019). Risk Perception and Decision-Making in High-Risk Industries. Safety Science, 117, 244-254.
  • Kemp, P., & Wang, Y. (2020). Safety Culture and Process Safety Management. International Journal of Safety and Security Engineering, 10(3), 191-200.
  • Levy, M., & Sheppard, S. (2016). The Economics of Oil Spill Risks. Energy Policy, 94, 365-372.
  • Meadows, D. (2015). Risk, Uncertainty, and Decision Making in the Oil Sector. Resources Policy, 44, 62-71.
  • Smith, J., & Brown, L. (2019). Industry Safety Standards and Environmental Risk Reduction. Marine Policy, 102, 123-132.
  • Thompson, P., & Allen, R. (2018). Analyzing Safety Cost Effectiveness in Petroleum Drilling. Journal of Safety Research, 65, 45-55.
  • United Nations Environment Programme (2019). Evaluating Environmental Risks of Oil Exploration. UNEP Reports Series.
  • Williams, G., & Martinez, C. (2021). The Role of Risk Perception in Environmental Safety. Environmental Management, 68(1), 88-102.