top

  Info

  • Utilizzare la checkbox di selezione a fianco di ciascun documento per attivare le funzionalità di stampa, invio email, download nei formati disponibili del (i) record.

  Info

  • Utilizzare questo link per rimuovere la selezione effettuata.
Contagion phenomena with applications in finance / / Serge Darolles, Christian Gourieroux
Contagion phenomena with applications in finance / / Serge Darolles, Christian Gourieroux
Autore Darolles Serge
Pubbl/distr/stampa Oxford, UK : , : Elsevier Science, , 2015
Descrizione fisica 1 online resource (168 p.)
Disciplina 332
Collana Quantitative finance set
Soggetto topico Financial crises
International finance
Financial risk management
ISBN 0-08-100478-8
Formato Materiale a stampa
Livello bibliografico Monografia
Lingua di pubblicazione eng
Nota di contenuto Front Cover; Contagion Phenomena with Applications in Finance; Copyright; Contents; Introduction; Chapter 1: Contagion and Causality in Static Models; 1.1. Linear Dependence in a Static Model; 1.2. Nonlinear Dependence in a Static Model; 1.3. Model with Exogenous Switching Regimes; 1.4. Chapter 1 Highlights; 1.5. Appendices; Chapter 2: Contagion in Structural VARMA Models; 2.1. Shocks in a Dynamic Model; 2.2. A Vector Autoregressive Moving Average (VARMA) Model with Independent Errors; 2.3. Non-Fundamentalness; 2.4. Chapter 2 Highlights; 2.5. Appendices
Chapter 3: Common Frailty Versus Contagion in Linear Dynamic Models3.1. Linear Dynamic Model with Common Factor and Contagion; 3.2. Observable Versus Latent Factors; 3.3. Shocks, Impulse Response Functions and Stress; 3.4. Constrained Models and Misspecification; 3.5. The Literature; 3.6. Chapter 3 Highlights; 3.7. Appendices; Chapter 4: Applications of Linear Dynamic Models; 4.1. Portfolio Management; 4.2. Contagion Among Banks; 4.3. Chapter 4 Highlights; 4.4. Appendices; Chapter 5: Common Frailty and Contagion in Nonlinear Dynamic Models; 5.1. Specifications
5.2. Stochastic Volatility Model5.3. Application to Portfolio Management; 5.4. Chapter 5 Highlights; 5.5. Appendices; Chapter 6: An Application of Nonlinear Dynamic Models: The Hedge Fund Survival; 6.1. HF Liquidation Data; 6.2. Dynamic Poisson Model; 6.3. Results; 6.4. Stress-Tests; 6.5. Chapter 6 Highlights; 6.6. Appendices; Bibliography; Index; Back Cover
Record Nr. UNINA-9910583055503321
Darolles Serge  
Oxford, UK : , : Elsevier Science, , 2015
Materiale a stampa
Lo trovi qui: Univ. Federico II
Opac: Controlla la disponibilità qui
Multi-factor models and signal processing techniques [[electronic resource] ] : application to quantitative finance / / Serge Darolles, Patrick Duvaut, Emmanuelle Jay
Multi-factor models and signal processing techniques [[electronic resource] ] : application to quantitative finance / / Serge Darolles, Patrick Duvaut, Emmanuelle Jay
Autore Darolles Serge
Pubbl/distr/stampa London, : ISTE, 2013
Descrizione fisica 1 online resource (188 p.)
Disciplina 621.382
Altri autori (Persone) DuvautPatrick
JayEmmanuelle
Collana Digital signal and image processing series
Soggetto topico Signal processing - Mathematical models
Finance - Mathematical models
ISBN 1-118-57749-3
1-118-57738-8
1-118-57740-X
Formato Materiale a stampa
Livello bibliografico Monografia
Lingua di pubblicazione eng
Nota di contenuto Cover; Title Page; Contents; Foreword; Introduction; Notations and Acronyms; Chapter 1. Factor Models andGeneral Definition; 1.1. Introduction; 1.2. What are factor models?; 1.2.1. Notations; 1.2.2. Factor representation; 1.3. Why factor models in finance?; 1.3.1. Style analysis; 1.3.2. Optimal portfolio allocation; 1.4. How to build factor models?; 1.4.1. Factor selection; 1.4.2. Parameters estimation; 1.5. Historical perspective; 1.5.1. CAPM and Sharpe's market model; 1.5.2. APT for arbitrage pricing theory; 1.6. Glossary Volatility; Chapter 2. Factor Selection; 2.1. Introduction
2.2. Qualitative know-how2.2.1. Fama and French model; 2.2.2. The Chen et al. model; 2.2.3. The risk-based factor model of Fung and Hsieh; 2.3. Quantitative methods based on eigenfactors; 2.3.1. Notation; 2.3.2. Subspace methods: the Principal Component Analysis; 2.4. Model order choice; 2.4.1. Information criteria; 2.5. Appendix 1: Covariance matrix estimation; 2.5.1. Sample mean; 2.5.2. Sample covariance matrix; 2.5.3. Robust covariance matrix estimation: M-estimators; 2.6. Appendix 2: Similarity of the eigenfactor selection with the MUSIC algorithm; 2.7. Appendix 3: Large panel data
2.7.1. Large panel data criteria2.8. Chapter 2 highlights; Chapter 3. Least Squares Estimation(LSE) and Kalman Filtering (KF)for Factor Modeling:A Geometrical Perspective; 3.1. Introduction; 3.2. Why LSE and KF in factor modeling?; 3.2.1. Factor model per return; 3.2.2. Alpha and beta estimation per return; 3.3. LSE setup; 3.3.1. Current observation window and block processing; 3.3.2. LSE regression; 3.4. LSE objective and criterion; 3.5. How LSE is working (for LSE users and programmers); 3.6. Interpretation of the LSE solution; 3.6.1. Bias and variance
3.6.2. Geometrical interpretation of LSE3.7. Derivations of LSE solution; 3.8. Why KF and which setup?; 3.8.1. LSE method does not provide a recursive estimate; 3.8.2. The state space model and its recursive component; 3.8.3. Parsimony and orthogonality assumptions; 3.9. What are the main properties of the KF model?; 3.9.1. Self-aggregation feature; 3.9.2. Markovian property; 3.9.3. Innovation property; 3.10. What is the objective of KF?; 3.11. How does the KF work (for users and programmers)?; 3.11.1. Algorithm summary; 3.11.2. Initialization of the KF recursive equations
3.12. Interpretation of the KF updates3.12.1. Prediction filtering, equation [3.34]; 3.12.2. Prediction accuracy processing, equation [3.35]; 3.12.3. Correction filtering equations [3.36]-[3.37]; 3.12.4. Correction accuracy processing, equation [3.38]; 3.13. Practice; 3.13.1. Comparison of the estimation methods on synthetic data; 3.13.2. Market risk hedging given asingle-factor model; 3.13.3. Hedge fund style analysis using amulti-factor model; 3.14. Geometrical derivation of KF updating equations; 3.14.1. Geometrical interpretation of MSE criterion and the MMSE solution
3.14.2. Derivation of the prediction filtering update
Record Nr. UNINA-9910139016803321
Darolles Serge  
London, : ISTE, 2013
Materiale a stampa
Lo trovi qui: Univ. Federico II
Opac: Controlla la disponibilità qui
Multi-factor models and signal processing techniques [[electronic resource] ] : application to quantitative finance / / Serge Darolles, Patrick Duvaut, Emmanuelle Jay
Multi-factor models and signal processing techniques [[electronic resource] ] : application to quantitative finance / / Serge Darolles, Patrick Duvaut, Emmanuelle Jay
Autore Darolles Serge
Pubbl/distr/stampa London, : ISTE, 2013
Descrizione fisica 1 online resource (188 p.)
Disciplina 621.382
Altri autori (Persone) DuvautPatrick
JayEmmanuelle
Collana Digital signal and image processing series
Soggetto topico Signal processing - Mathematical models
Finance - Mathematical models
ISBN 1-118-57749-3
1-118-57738-8
1-118-57740-X
Formato Materiale a stampa
Livello bibliografico Monografia
Lingua di pubblicazione eng
Nota di contenuto Cover; Title Page; Contents; Foreword; Introduction; Notations and Acronyms; Chapter 1. Factor Models andGeneral Definition; 1.1. Introduction; 1.2. What are factor models?; 1.2.1. Notations; 1.2.2. Factor representation; 1.3. Why factor models in finance?; 1.3.1. Style analysis; 1.3.2. Optimal portfolio allocation; 1.4. How to build factor models?; 1.4.1. Factor selection; 1.4.2. Parameters estimation; 1.5. Historical perspective; 1.5.1. CAPM and Sharpe's market model; 1.5.2. APT for arbitrage pricing theory; 1.6. Glossary Volatility; Chapter 2. Factor Selection; 2.1. Introduction
2.2. Qualitative know-how2.2.1. Fama and French model; 2.2.2. The Chen et al. model; 2.2.3. The risk-based factor model of Fung and Hsieh; 2.3. Quantitative methods based on eigenfactors; 2.3.1. Notation; 2.3.2. Subspace methods: the Principal Component Analysis; 2.4. Model order choice; 2.4.1. Information criteria; 2.5. Appendix 1: Covariance matrix estimation; 2.5.1. Sample mean; 2.5.2. Sample covariance matrix; 2.5.3. Robust covariance matrix estimation: M-estimators; 2.6. Appendix 2: Similarity of the eigenfactor selection with the MUSIC algorithm; 2.7. Appendix 3: Large panel data
2.7.1. Large panel data criteria2.8. Chapter 2 highlights; Chapter 3. Least Squares Estimation(LSE) and Kalman Filtering (KF)for Factor Modeling:A Geometrical Perspective; 3.1. Introduction; 3.2. Why LSE and KF in factor modeling?; 3.2.1. Factor model per return; 3.2.2. Alpha and beta estimation per return; 3.3. LSE setup; 3.3.1. Current observation window and block processing; 3.3.2. LSE regression; 3.4. LSE objective and criterion; 3.5. How LSE is working (for LSE users and programmers); 3.6. Interpretation of the LSE solution; 3.6.1. Bias and variance
3.6.2. Geometrical interpretation of LSE3.7. Derivations of LSE solution; 3.8. Why KF and which setup?; 3.8.1. LSE method does not provide a recursive estimate; 3.8.2. The state space model and its recursive component; 3.8.3. Parsimony and orthogonality assumptions; 3.9. What are the main properties of the KF model?; 3.9.1. Self-aggregation feature; 3.9.2. Markovian property; 3.9.3. Innovation property; 3.10. What is the objective of KF?; 3.11. How does the KF work (for users and programmers)?; 3.11.1. Algorithm summary; 3.11.2. Initialization of the KF recursive equations
3.12. Interpretation of the KF updates3.12.1. Prediction filtering, equation [3.34]; 3.12.2. Prediction accuracy processing, equation [3.35]; 3.12.3. Correction filtering equations [3.36]-[3.37]; 3.12.4. Correction accuracy processing, equation [3.38]; 3.13. Practice; 3.13.1. Comparison of the estimation methods on synthetic data; 3.13.2. Market risk hedging given asingle-factor model; 3.13.3. Hedge fund style analysis using amulti-factor model; 3.14. Geometrical derivation of KF updating equations; 3.14.1. Geometrical interpretation of MSE criterion and the MMSE solution
3.14.2. Derivation of the prediction filtering update
Record Nr. UNISA-996205826003316
Darolles Serge  
London, : ISTE, 2013
Materiale a stampa
Lo trovi qui: Univ. di Salerno
Opac: Controlla la disponibilità qui
Multi-factor models and signal processing techniques [[electronic resource] ] : application to quantitative finance / / Serge Darolles, Patrick Duvaut, Emmanuelle Jay
Multi-factor models and signal processing techniques [[electronic resource] ] : application to quantitative finance / / Serge Darolles, Patrick Duvaut, Emmanuelle Jay
Autore Darolles Serge
Pubbl/distr/stampa London, : ISTE, 2013
Descrizione fisica 1 online resource (188 p.)
Disciplina 621.382
Altri autori (Persone) DuvautPatrick
JayEmmanuelle
Collana Digital signal and image processing series
Soggetto topico Signal processing - Mathematical models
Finance - Mathematical models
ISBN 1-118-57749-3
1-118-57738-8
1-118-57740-X
Formato Materiale a stampa
Livello bibliografico Monografia
Lingua di pubblicazione eng
Nota di contenuto Cover; Title Page; Contents; Foreword; Introduction; Notations and Acronyms; Chapter 1. Factor Models andGeneral Definition; 1.1. Introduction; 1.2. What are factor models?; 1.2.1. Notations; 1.2.2. Factor representation; 1.3. Why factor models in finance?; 1.3.1. Style analysis; 1.3.2. Optimal portfolio allocation; 1.4. How to build factor models?; 1.4.1. Factor selection; 1.4.2. Parameters estimation; 1.5. Historical perspective; 1.5.1. CAPM and Sharpe's market model; 1.5.2. APT for arbitrage pricing theory; 1.6. Glossary Volatility; Chapter 2. Factor Selection; 2.1. Introduction
2.2. Qualitative know-how2.2.1. Fama and French model; 2.2.2. The Chen et al. model; 2.2.3. The risk-based factor model of Fung and Hsieh; 2.3. Quantitative methods based on eigenfactors; 2.3.1. Notation; 2.3.2. Subspace methods: the Principal Component Analysis; 2.4. Model order choice; 2.4.1. Information criteria; 2.5. Appendix 1: Covariance matrix estimation; 2.5.1. Sample mean; 2.5.2. Sample covariance matrix; 2.5.3. Robust covariance matrix estimation: M-estimators; 2.6. Appendix 2: Similarity of the eigenfactor selection with the MUSIC algorithm; 2.7. Appendix 3: Large panel data
2.7.1. Large panel data criteria2.8. Chapter 2 highlights; Chapter 3. Least Squares Estimation(LSE) and Kalman Filtering (KF)for Factor Modeling:A Geometrical Perspective; 3.1. Introduction; 3.2. Why LSE and KF in factor modeling?; 3.2.1. Factor model per return; 3.2.2. Alpha and beta estimation per return; 3.3. LSE setup; 3.3.1. Current observation window and block processing; 3.3.2. LSE regression; 3.4. LSE objective and criterion; 3.5. How LSE is working (for LSE users and programmers); 3.6. Interpretation of the LSE solution; 3.6.1. Bias and variance
3.6.2. Geometrical interpretation of LSE3.7. Derivations of LSE solution; 3.8. Why KF and which setup?; 3.8.1. LSE method does not provide a recursive estimate; 3.8.2. The state space model and its recursive component; 3.8.3. Parsimony and orthogonality assumptions; 3.9. What are the main properties of the KF model?; 3.9.1. Self-aggregation feature; 3.9.2. Markovian property; 3.9.3. Innovation property; 3.10. What is the objective of KF?; 3.11. How does the KF work (for users and programmers)?; 3.11.1. Algorithm summary; 3.11.2. Initialization of the KF recursive equations
3.12. Interpretation of the KF updates3.12.1. Prediction filtering, equation [3.34]; 3.12.2. Prediction accuracy processing, equation [3.35]; 3.12.3. Correction filtering equations [3.36]-[3.37]; 3.12.4. Correction accuracy processing, equation [3.38]; 3.13. Practice; 3.13.1. Comparison of the estimation methods on synthetic data; 3.13.2. Market risk hedging given asingle-factor model; 3.13.3. Hedge fund style analysis using amulti-factor model; 3.14. Geometrical derivation of KF updating equations; 3.14.1. Geometrical interpretation of MSE criterion and the MMSE solution
3.14.2. Derivation of the prediction filtering update
Record Nr. UNINA-9910826223603321
Darolles Serge  
London, : ISTE, 2013
Materiale a stampa
Lo trovi qui: Univ. Federico II
Opac: Controlla la disponibilità qui