优化IBM算法的实时交易对手信用风险评分的“面向未来的标记”聚合引擎

Amy Wang, Jan Treibig, Bob Blainey, Peng Wu, Yaoqing Gao, Barnaby Dalton, D. Gupta, Fahham Khan, Neil Bartlett, Lior Velichover, James Sedgwick, Louis Ly
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引用次数: 2

摘要

违约的概念及其相关的痛苦影响一直是金融机构特别关注的领域,尤其是在2007/2008年全球金融危机之后。交易对手信用风险(CCR),即与合同到期前交易对手违约相关的风险,已经引起了极大的关注,导致新的CCR措施和法规被引入。特别是,用户希望使用蒙特卡罗模拟交易价值来衡量每个实时交易或潜在实时交易对交易对手的风险敞口限制的潜在影响,并计算信用价值调整(即,如果/当进行交易时,支付与该特定交易对手的违约风险所需的成本)。这些快速的极限检查和CVA计算需要硬件提供更多的计算能力。此外,随着电子交易的出现,极低延迟和高吞吐量的实时计算需求将软件和硬件能力推向了极限。我们的工作重点是在IBM Algorithmics产品中现有的Mark-to-future Aggregation (MAG)引擎中优化风险度量和交易处理的计算。我们提出了一种基于预编译方法的加速端到端贸易处理的新软件方法。最终结果是一个令人印象深刻的速度3- 5倍比现有的MAG引擎使用真实的客户工作负载,处理交易执行限额检查和CVA报告的风险,同时考虑到完整的抵押品建模。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Optimizing IBM algorithmics' mark-to-future aggregation engine for real-time counterparty credit risk scoring
The concept of default and its associated painful repercussions have been a particular area of focus for financial institutions, especially after the 2007/2008 global financial crisis. Counterparty credit risk (CCR), i.e. risk associated with a counterparty default prior to the expiration of a contract, has gained tremendous amount of attention which resulted in new CCR measures and regulations being introduced. In particular users would like to measure the potential impact of each real time trade or potential real time trade against exposure limits for the counterparty using Monte Carlo simulations of the trade value, and also calculate the Credit Value Adjustment (i.e, how much it will cost to cover the risk of default with this particular counterparty if/when the trade is made). These rapid limit checks and CVA calculations demand more compute power from the hardware. Furthermore, with the emergence of electronic trading, the extreme low latency and high throughput real time compute requirement push both the software and hardware capabilities to the limit. Our work focuses on optimizing the computation of risk measures and trade processing in the existing Mark-to-future Aggregation (MAG) engine in the IBM Algorithmics product offering. We propose a new software approach to speed up the end-to-end trade processing based on a pre-compiled approach. The net result is an impressive speed up of 3--5x over the existing MAG engine using a real client workload, for processing trades which perform limit check and CVA reporting on exposures while taking full collateral modelling into account.
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