Predicting Credit Default Probabilities Using Bayesian Statistics and Monte Carlo Simulations
Dominic Joseph

TL;DR
This paper introduces a Bayesian and Monte Carlo simulation-based methodology for estimating and calibrating credit default probabilities, enhancing risk assessment accuracy for financial portfolios.
Contribution
It presents a novel two-phase approach combining Bayesian inference and simulations to improve default risk estimation in credit portfolios.
Findings
Effective calibration of default probabilities using Bayesian methods.
Improved accuracy in credit risk assessment through simulation techniques.
Method adaptable to various credit rating data sets.
Abstract
Banks and financial institutions all over the world manage portfolios containing tens of thousands of customers. Not all customers are high credit-worthy, and many possess varying degrees of risk to the Bank or financial institutions that lend money to these customers. Hence assessment of credit risk is paramount in the field of credit risk management. This paper discusses the use of Bayesian principles and simulation-techniques to estimate and calibrate the default probability of credit ratings. The methodology is a two-phase approach where, in the first phase, a posterior density of default rate parameter is estimated based the default history data. In the second phase of the approach, an estimate of true default rate parameter is obtained through simulations
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Taxonomy
TopicsCredit Risk and Financial Regulations · Statistical Distribution Estimation and Applications · Probability and Risk Models
