Modelling Trade Durations Using Dynamic Logarithmic Component ACD Model with Extended Generalised Inverse Gaussian Distribution

This paper proposes a logarithmic version of the two-component ACD (LogCACD) model with no restrictions on the sign of the model parameters while allowing the expected durations to be decomposed into the long- and short-run components to capture the dynamics of these durations. The extended generali...

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Main Authors: Yiing Fei Tan, Kok Haur Ng, You Beng Koh, Shelton Peiris
Format: Article
Language:English
Published: MDPI AG 2022-05-01
Series:Mathematics
Subjects:
Online Access:https://www.mdpi.com/2227-7390/10/10/1621
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author Yiing Fei Tan
Kok Haur Ng
You Beng Koh
Shelton Peiris
author_facet Yiing Fei Tan
Kok Haur Ng
You Beng Koh
Shelton Peiris
author_sort Yiing Fei Tan
collection DOAJ
description This paper proposes a logarithmic version of the two-component ACD (LogCACD) model with no restrictions on the sign of the model parameters while allowing the expected durations to be decomposed into the long- and short-run components to capture the dynamics of these durations. The extended generalised inverse Gaussian (EGIG) distribution is used for the error distribution as its hazard function consists of a roller-coaster shape for certain parameters’ values. An empirical application from the trade durations of International Business Machines stock index has been carried out to investigate this proposed model. Extensive comparisons are carried out to evaluate the modelling and forecasting performances of the proposed model with several benchmark models and different specifications of error distributions. The result reveals that the LogCACD<sub>EGIG</sub>(1,1) model gives the best in-sample fit based on the Akaike information criterion and other criteria. Furthermore, the estimated parameters obtained through the maximum likelihood estimation confirm the existence of the roller-coaster-shaped hazard function. The examination of LogCACD<sub>EGIG</sub>(1,1) model also provides the best out-of-sample forecasts evaluated based on the mean square forecast error using the Hansen’s model confidence set. Lastly, different levels of time-at-risk forecasts are provided and tested with Kupiec likelihood ratio test.
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spelling doaj.art-fe0f1a6e84a64c9e995f02658ff406cb2023-11-23T11:59:59ZengMDPI AGMathematics2227-73902022-05-011010162110.3390/math10101621Modelling Trade Durations Using Dynamic Logarithmic Component ACD Model with Extended Generalised Inverse Gaussian DistributionYiing Fei Tan0Kok Haur Ng1You Beng Koh2Shelton Peiris3Institute of Mathematical Sciences, Faculty of Science, Universiti Malaya, Kuala Lumpur 50603, MalaysiaInstitute of Mathematical Sciences, Faculty of Science, Universiti Malaya, Kuala Lumpur 50603, MalaysiaInstitute of Mathematical Sciences, Faculty of Science, Universiti Malaya, Kuala Lumpur 50603, MalaysiaSchool of Mathematics and Statistics, Faculty of Science, The University of Sydney, Sydney, NSW 2006, AustraliaThis paper proposes a logarithmic version of the two-component ACD (LogCACD) model with no restrictions on the sign of the model parameters while allowing the expected durations to be decomposed into the long- and short-run components to capture the dynamics of these durations. The extended generalised inverse Gaussian (EGIG) distribution is used for the error distribution as its hazard function consists of a roller-coaster shape for certain parameters’ values. An empirical application from the trade durations of International Business Machines stock index has been carried out to investigate this proposed model. Extensive comparisons are carried out to evaluate the modelling and forecasting performances of the proposed model with several benchmark models and different specifications of error distributions. The result reveals that the LogCACD<sub>EGIG</sub>(1,1) model gives the best in-sample fit based on the Akaike information criterion and other criteria. Furthermore, the estimated parameters obtained through the maximum likelihood estimation confirm the existence of the roller-coaster-shaped hazard function. The examination of LogCACD<sub>EGIG</sub>(1,1) model also provides the best out-of-sample forecasts evaluated based on the mean square forecast error using the Hansen’s model confidence set. Lastly, different levels of time-at-risk forecasts are provided and tested with Kupiec likelihood ratio test.https://www.mdpi.com/2227-7390/10/10/1621autoregressive conditional durationtwo-component modelextended generalised inverse Gaussianhazard functiontime-at-risk
spellingShingle Yiing Fei Tan
Kok Haur Ng
You Beng Koh
Shelton Peiris
Modelling Trade Durations Using Dynamic Logarithmic Component ACD Model with Extended Generalised Inverse Gaussian Distribution
Mathematics
autoregressive conditional duration
two-component model
extended generalised inverse Gaussian
hazard function
time-at-risk
title Modelling Trade Durations Using Dynamic Logarithmic Component ACD Model with Extended Generalised Inverse Gaussian Distribution
title_full Modelling Trade Durations Using Dynamic Logarithmic Component ACD Model with Extended Generalised Inverse Gaussian Distribution
title_fullStr Modelling Trade Durations Using Dynamic Logarithmic Component ACD Model with Extended Generalised Inverse Gaussian Distribution
title_full_unstemmed Modelling Trade Durations Using Dynamic Logarithmic Component ACD Model with Extended Generalised Inverse Gaussian Distribution
title_short Modelling Trade Durations Using Dynamic Logarithmic Component ACD Model with Extended Generalised Inverse Gaussian Distribution
title_sort modelling trade durations using dynamic logarithmic component acd model with extended generalised inverse gaussian distribution
topic autoregressive conditional duration
two-component model
extended generalised inverse Gaussian
hazard function
time-at-risk
url https://www.mdpi.com/2227-7390/10/10/1621
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AT youbengkoh modellingtradedurationsusingdynamiclogarithmiccomponentacdmodelwithextendedgeneralisedinversegaussiandistribution
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