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A vector-autoregression analysis of credit and liquidity factor dynamics in US LIBOR and Euribor swap markets

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Abstract

We use a vector autoregressive approach to investigate the determinants of US Dollar LIBOR and Euribor swap spread variation during the 2007–2009 crisis in global credit and money markets. Using market-quoted yield and spread data from the highly liquid credit default swap (CDS) and overnight index swap (OIS) markets, we provide compelling empirical evidence that liquidity risk factor shocks have been the dominant drivers of the variation in swap spreads over this period. Our findings provide an explanation for the temporal differences that liquidity shocks have on swap spreads and provide a contemporary perspective on the dynamical interplay between credit-default and liquidity risk-factors in these markets. As all our risk-factor proxies are traded in liquid derivatives markets, our findings have implications for proprietary hedge fund traders hedging an exposure to swap-spread risk, for bank treasurers managing their liquidity requirements and for central bankers seeking to better understand the response of markets to their macroeconomic policy implementation and liquidity management actions. Indeed our markets-based analysis suggests that the European Central Bank (ECB) has underperformed relative to the Federal Reserve in terms of the differing levels of market confidence placed in its macroeconomic policy actions and remedial liquidity interventions during the period.

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Notes

  1. Source: Securities Industry and Financial Markets Association (SIFMA).

  2. Hereafter, D&S97.

  3. For ease of reference, the same notation as that proposed by D&S97 is used here.

  4. Hereafter, H&N03.

  5. For ease of reference, the same notation as that proposed by H&N03 is used here.

  6. In a spot-starting ‘vanilla’ fixed for floating interest rate swap, the floating rate reference is typically the prevailing 3 or 6-month London Inter-Bank Offer Rate (LIBOR)—i.e. the published “fixing rate” typically published by an agency such as the British Bankers Association.

  7. This swap rate, \(s_{t_{0}}\), is the rate at the time the swap agreement is signed, t 0, at which the present value of the floating payments described by Eq. 2 equals the present value of the fixed payments given by Eq. 3.

  8. This is a measure of the premium a bank would be willing to pay for a LIBOR-referenced term deposit over a rolling overnight funding strategy for the term of the loan. A widening of the OIS spread, reflecting a willingness to pay a higher premium, is seen as a “ceteris-paribus” indication of an anticipated deterioration in interbank liquidity conditions going forward.

  9. Hedging a multi-variate exposure can be quite robust when the standard market model is used in conjunction with a markets-acquired mix of intuition and common sense. It has been shown (Bakshi et al. 1997) that a daily re-calibrated Black–Scholes model is quite a robust tool for delta-hedging equity options even when the underlying market dynamics are driven by a stochastic volatility, jump-diffusion process.

  10. The H&N03 rationalization of a contracting LIBOR swap spread in response to a positive shock from their particular choice of a “term structure slope factor” proxy for liquidity risk is in fact sound. Under the latter scenario, the typically negative-signed principal component factor loadings associated with short-dated yields would indeed be consistent with a positive steepening of the slope of the (defaultable) yield curve, manifesting in falling short-term rates. Generating a positive “tilt” in the forward (LIBOR) curve, such a downward steepening will indeed drive “equilibrium” swap rates (weighted averages of forward LIBOR rates) down, at least for short-dated maturities.

  11. Such a scenario would be ceteris-paribus consistent with a positive shock from the “slope factor” and (given the typically negative factor loadings) a downward movement— but upwards tilt—in the term structure at the short end. This might typically be seen as a signal for expected near-term cuts in short-term interest rates, and hence of lower spot funding costs in the overnight market in particular.

  12. See www.markit.com.

  13. A VAR analysis is predicated on variable stationarity. An adjusted Dickey–Fuller test was conducted on all the VAR4 variables and found all t-test statistics less than -10 at the 5% level. This demonstrates strong stationarity for all variables.

  14. Intuitively since a simple AR(1) specification will explain most of the “self-driven” variation in a mean-reverting or conjectured AR(p) time-series, it is to be expected that only a very few lags anyway will explain well the variation in a conjectured AR(p) time-series. All these spread variables are known to be strongly mean-reverting stochastic processes, so p = 1 or 2 will result in R 2 AR(p) OLS regression outputs in the 90%+ range.

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Correspondence to Finbarr Murphy.

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Murphy, F., Murphy, B. A vector-autoregression analysis of credit and liquidity factor dynamics in US LIBOR and Euribor swap markets. J Econ Finan 36, 351–370 (2012). https://doi.org/10.1007/s12197-010-9122-2

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