Quarticity and other functionals of volatility: Efficient estimation
By Jean Jacod, Mathieu Rosenbaum. 2012
128 citations recorded by the source corpus.
We consider a multidimensional Ito semimartingale regularly sampled on [0,t] at high frequency $1/\Delta_n$, with $\Delta_n$ going to zero. The goal of this paper is to provide an estimator for the integral over [0,t] of a given function of the volatility matrix. To approximate the integral, we simply use a Riemann sum based on local estimators of the pointwise volatility. We show that although the accuracy of the pointwise estimation is at most $\Delta_n^{1/4}$, this procedure reaches the parametric rate $\Delta_n^{1/2}$, as it is usually the case in integrated functionals estimation. After a suitable bias correction, we obtain an unbiased central limit theorem for our estimator and show that it is asymptotically efficient within some classes of sub models.
Subfields: Finance, Management Science and Operations Research, Statistics and Probability
View Paper: https://www.semanticscholar.org/paper/6cb5e7c3229ad80ffd9725f22eedc175f12bc7fd
How researchers see this paper
The researchers whose trusted networks rank it highest, strongest advocate first. Every researcher gets a different order.
In Finance
- V. Todorov
- Xinbing Kong
- Markus Bibinger
- George Tauchen
- Jia Li
- Markus Reiß
- Nikolaus Hautsch
- Mathias Trabs
In Management Science and Operations Research
- V. Todorov
- Xinbing Kong
- Jia Li
- Nikolaus Hautsch
- Mathias Vetter
- Markus Reiß
- Peter Malec
- George Tauchen
In Statistics and Probability
- V. Todorov
- Xinbing Kong
- Markus Bibinger
- George Tauchen
- Mathias Trabs
- Nikolaus Hautsch
- Peter Malec
- Jia Li
Citations in the corpus
- Estimating the Quadratic Covariation Matrix from Noisy Observations: Local Method of Moments and Efficiency (2013, background): “While the univariate case has been studied extensively from both angles (see, e.g., the survey of Andersen et al. [4] or recent work by Reiss [22] and Jacod and Rosenbaum [15]), statistical inference for the quadratic covariation matrix is not yet well understood.”
- On the number of common factors with high‐frequency data (2017, methodology): “These are commonly used in the literature (see, e.g., Wang & Zou, 2010; Jing et al., 2012a,b; Jacod & Podolskij, 2013; Jacod & Rosenbaum, 2013).”
- Adaptive estimation of continuous-time regression models using high-frequency data (2017, methodology): “The latter provides a central limit theorem for integrated 4 We note that (Jacod and Rosenbaum, 2013) do not need Assumption K or K’ for their result.”
- Estimation of integrated volatility of volatility with applications to goodness-of-fit testing (2011, background): “Recently, [19] discussed efficient estimation of ∫ t 0 g(σ(2) s) ds for general functions g.”
- Estimating the Spot Covariation of Asset Prices—Statistical Theory and Empirical Evidence (2014, methodology): “419 July 2019, Vol. 37, No. 3 © 2019 Ait-Sahalia and Xiu (2015) showed how to estimate diagonalized integrated covariance matrices exploiting methods from Jacod and Rosenbaum (2013) to deal with functional transformations of volatility.”
- Principal Component Analysis of High-Frequency Data (2016, unknown): “Assumption 3 resembles the spacial localization assumption in Li, Todorov, andTauchen (2017) and Li andXiu (2016), which is different from the polynomial growth conditions proposed by Jacod and Rosenbaum (2013).”
- Volatility estimation for stochastic PDEs using high-frequency observations (2017, background): “…time, our aim is to extend the well understood statistical theory for semi-martingales, see, for instance, Jacod and Protter (2012), Mykland and Zhang (2009) or Jacod and Rosenbaum (2013), to parabolic SPDEs whose solution can be understood as infinite dimensional stochastic differential equations.”
- Generalized Method of Integrated Moments for High‐Frequency Data (2016, unknown): “As shown by Jiang and Tian (2005) and Carr and Wu (2009), the theoretical value of the implied variance is given by”