William Wilson, William Nganje, Semere Gebresilasie, Indranil SenGupta
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引用次数: 11
摘要
本文采用Barndorff-Nielsen and Shephard (BN-S)模型,对Bakken地区产油量存在风险的情况下寻找最优对冲策略。Bakken地区是一个受益于水力压裂技术的新兴采油地区。套期保值和价格风险管理越来越多地涉及到数量风险。勘探者和钻探者无法确定可开采的石油数量,政府也无法确定可开采、销售和用于征税的石油数量。在套期保值的投资组合模型中,一个典型的主要假设是库存或需求的数量是已知的。这在许多对冲情况下是不合适的。数量风险增加了在价格和生产风险下确定头寸最优规模的难度。本文结合BN-S模型,提出了一种处理数量风险的新方法。将该模型作为一个二次套期保值问题进行分析,得到了相关的分析结果。结果表明,采用方差掉期和期权相结合的方法可以对石油进行最优对冲。对于各种数量风险,应用该模型对Bakken石油商品的价格风险管理进行了套期保值决策数值分析。
Barndorff-Nielsen and Shephard model for hedging energy with quantity risk
In this paper, the Barndorff-Nielsen and Shephard (BN-S) model is implemented to find an optimal hedging strategy in the presence of quantity risk for oil produced in the Bakken, a new region of oil extraction that is benefiting from fracking technology. Hedging and price risk management become much more involved with the inclusion of quantity risk. Explorers and drillers have uncertainty on the quantity of oil that would be extracted, and governments have uncertainty of the quantity of oil that will be extracted, sold, and available for imposing tax regimes. One of the main assumptions typically made in a portfolio model of hedging is that the quantity of inventory or demand is known. This is inappropriate in many hedging situations. Quantity risk compounds the difficulty of determining the optimal size of the position under both price and production risk. In this paper, we provide a novel way of handling the quantity risk in connection with the BN-S model. The model is analyzed as a quadratic hedging problem and related analytical results are developed. The results indicate that oil can be optimally hedged with a combination of variance swaps and options. For various quantity risks, the model is implemented to analyze hedging decisions numerically for managing price risk in the Bakken oil commodities.