| Título : |
Contemporary Ideas on Ship Stability : Risk of Capsizing |
| Tipo de documento: |
documento electrónico |
| Autores: |
Belenky, Vadim L., ; Spyrou, Kostas J., ; van Walree, Frans, ; Almeida Santos Neves, Marcelo, ; Umeda, Naoya, |
| Mención de edición: |
1 ed. |
| Editorial: |
[s.l.] : Springer |
| Fecha de publicación: |
2019 |
| Número de páginas: |
XXVIII, 949 p. 545 ilustraciones, 378 ilustraciones en color. |
| ISBN/ISSN/DL: |
978-3-030-00516-0 |
| Nota general: |
Libro disponible en la plataforma SpringerLink. Descarga y lectura en formatos PDF, HTML y ePub. Descarga completa o por capítulos. |
| Palabras clave: |
Estructuras Costa Afuera Mecánica de Medios Continuos Mecánica de fluidos Ingeniería costa afuera Ingeniería de dinámica de fluidos |
| Índice Dewey: |
627.98 |
| Resumen: |
Este libro contiene una selección de trabajos de investigación presentados en los 11.º y 12.º Talleres Internacionales sobre Estabilidad de Buques (Wageningen, 2010 y Washington DC, 2011) y en la 11.ª Conferencia Internacional sobre Estabilidad de Buques y Vehículos Oceánicos (Atenas, 2012). El libro está dirigido a la comunidad de estabilidad de buques y presenta ideas innovadoras sobre la comprensión de la naturaleza física de las fallas de estabilidad y metodologías para evaluar la estabilidad de los buques. Se espera un interés particular de los lectores en relación con la aparición de tipos de barcos nuevos y no convencionales; La evaluación de la estabilidad de estos buques no puede basarse en la experiencia existente y debe basarse en los primeros principios. Dado que la complejidad de los procesos físicos responsables de la falla de estabilidad ha hecho que la simulación numérica en el dominio del tiempo sea cada vez más la principal herramienta para la evaluación de la estabilidad, se hace especial énfasis en el desarrollo y aplicación de dichas herramientas. Los artículos incluidos han sido seleccionados por el comité editorial y han pasado por un proceso de revisión adicional, con al menos dos revisores asignados para cada uno. Muchos de los artículos se han actualizado o ampliado significativamente con respecto a su versión original, para reflejar mejor el estado de conocimiento sobre la estabilidad en el momento de la publicación del libro. El libro consta de cuatro partes: modelo matemático de los movimientos de los barcos en las olas, dinámica de grandes movimientos, investigación y requisitos experimentales, regulaciones y operaciones. |
| Nota de contenido: |
Preface -- Introductory Note -- Part A: Mathematical Model of Ship Motions in Waves -- A1 New Simulation Tools -- A1.1 TEMPEST: A New Computationally Efficient Dynamic Stability Prediction Tool, by W.F. Bellknap and A.M. Reed -- A2 Wave Enviroment -- A2.1 Modeling of Incident Waves near the Ship's Hull (Application of Autoregressive Approach in Problems of Simulation of Rough Seas), by A. B. Degtyarev and A.M. Reed -- A2.2 Evaluation of hydrodynamic pressures for autoregression model of irregular waves, by A.B. Degtyarev and I. Gankevich -- A3 Consideration of Forces -- A3.1 Application of computing hydrodynamic forces and moments on a vessel without Bernoulli's equation, by A. M. Reed -- A3.2 Modelling of Hull Lift and Cross Flow Drag Forces in Large Waves in a Computationally Efficient Dynamic Stability Prediction Tool, by M. J. Hughes, P. J. Kopp and R. W Miller -- A3.3 Improved Maneuvering-Based Mathematical Model for Free-Running Ship Motions in Following Waves using High-Fidelity CFD Results and System-Identification Technique, by M. Araki, H. Sadat-Hosseini, Y. Sanada, N. Umeda, F. Stern -- A4 Roll Damping -- A4.1 Some Results from a New Time-Domain Bilge Keel Force Model, by D. S. Greeley -- A4.2 Some Topics for Estimation of Bilge Keel Component of Roll Damping, by T. Katayama, Y. Yoshioka, T. Kakinoki and S. Miyamoto -- A4.3 Considerations for Bilge Keel Force Models in Potential Flow Simulations of Ship Maneuvering in Waves, by C. Bassler, R. Miller, A. M. Reed and A. Brown -- A4.4 Assessment of ship roll damping through full scale and model scale experiments and semi-empirical methods, by C.-J. Soder, A. Rosen, S. Werner, M. Huss and J. Kuttenkeuler -- A4.5 Roll damping of twin-screw vessels: comparison of RANSE with established methods, by S. Handschel, N. Kollisch and M. Abdel Maksoud -- A5.1 Calculation method to include water on deck effects, by N. Carette and F. van Walree -- A5.2 Study on the motions and flooding process of a damaged ship in waves, by S.-K. Cho, H.-G. Sung, S-Y. Hong, B.-W. Nam and Y.-S. Kim -- A5.3 Numerical Study of Damaged Ship Motion in Waves, by Z. Gao, Q. Gao and D. Vassalos -- A5.4 3D GPU SPH analysis of coupled sloshing and roll motion, by L. Perez Rojas and J.L. Cercos Pita -- Part B. Dynamics of large motions -- B1 Parametric Roll -- B1.1 Prediction of Parametric Rolling in Irregular Head Waves, by H. Hashimoto, N. Umeda and Y. Sogawa -- B1.2 Investigation on parametrically excited motions of Spar platforms in waves, by C. A. Rodriguez and M. A. S. Neves -- B1.3 A study on unstable motions of a tension leg platform in close proximity to a large FPSO, by L. A. Rivera, M. A. S. Neves, R. E. Cruz and P. T. T. Esperanca -- B2 Surf-riding -- B2.1 Continuation analysis of surf-riding and periodic responses of a ship in steep quartering seas, by I. G. Tigkas and K. J. Spyrou -- B2.2 Evaluation of the probability of surf-riding in irregular waves with the time-split method, by V. Belenky, K. J.Spyrou and K. M. Weems -- B2.3 Definitions of Celerity for Investigating Surf-riding in An Irregular Seaway, by K. J. Spyrou, V. Belenky, N. Themelis and K. M. Weems -- B3 Stochastic Dynamics -- B3.1 Estimating Dynamic Stability Event Probabilities from Simulation and Wave Modeling Methods, by M. R. Leadbetter, I. Rychlik and K. Stambaugh -- B3.2 Stochastic Wave Inputs for Extreme Roll in Near Head Seas, by D. H. Kim and A. W. Troesch -- B3.3 Critical wave groups vs. direct Monte-Carlo simulations for typical stability failure modes of a container ship, by V. Shigunov, N. Themelis and K. J. Spyrou -- B3.4 Application of stochastic dynamical system to nonlinear ship rolling problems, by J. Falzarano, Z. Su and A. Jamnongpipatkul -- B3.5 The Capsize Band Concept Revisited, by N. Tsakalakis, J.Cichowisz and D.Vassalos -- B3.6 Dependence of roll and roll rate in nonlinear ship motions in following and stern quartering seas, by V. Belenky and K. M. Weems -- C. Experimental research -- C1Experimemintal Techniques -- C1.1 Regular Wave Testing as a Crucial First Step for Dynamic Stability Evaluation, by D. D. Hayden, R. C. Bishop, and M. J. Dipper -- C1.2 An experimental study on characteristics of rolling in head waves for a vessel with non-linear GZ-curve, by T. Katayama, S. Miyamoto, H. Hashimoto and Y. Tai -- C1.3 Experimental Ship Dynamic Stability Assessment Using Wave Groups, by C. C. Bassler, M. J. Dipper, Jr. and M. Melendez -- C1.4 Dynamic transverse stability for high speed craft, by C. Q. Judge -- C1.5 Experiments on a Floating Body Subjected to Forced Oscillation in Calm Water at the Presence of an Open-to-Sea Compartment, by J. Chichowicz, D. Vassalos and A. Jasionowski -- C2 Validation and Benchmarking -- C2.1 Model characteristics and validation approach for a simulation tool supporting direct stability assessment, by W. F. Belknap, A. M. Reed and M. J. Hughes -- C2.2 Validation Approach for Statistical Extrapolation, by T.C. Smith -- C2.3 Total stability failure probability of a ship in beam wind and waves: model experiment and numerical simulation, by T. Kubo, N. Umeda, S. Izawa and A. Matsuda -- C2.4 Deterministic Validation of a Time Domain Panel Code for Parametric Roll, by F. van Walree and P. de Jong -- C2.5 26th ITTC Parametric Roll Benchmark Study, by A. M. Reed -- C2.6 An Approach to the Validation of Ship Flooding Simulation Models, by E. Ypma and T. Turner -- D. Requirements, regulations and operation -- D1 Developments in Intact Stability Regulations -- D1.1 Research towards Goal Based Standards for Container Shipping, by V. Shigunov, H. Rathje and O. El Moctar -- D1.2 On regulatory framework for direct stability assessment, by W. S. Peters, V. Belenky and A. M. Reed -- D1.3 A probabilistic analysis of stability regulations for river-sea ships, by I. Backalov -- D2 Developments in Damage Stability Regulations -- D2.1 Issues Related to Damage Stability, by A.L. Scott -- D2.2 Damage Stability Making Sense, by D. Vassalos -- D2.3 Coupling of progressive structural failure and loss of stability in the safe return to port framework , by S. Kwon, Q. Chen, G. Mermiris and D. Vassalos -- D2.4 Impact of Watertight Door Regulations on Ship Survivability, by J. PersonD2.5 Damage stability of passenger ships - notions and truths, by D. Vassalos -- D2.6 Defining Rational Damage Stability Requirements, by N. Tsakalakis, D. Konovessis and D. Vassalos -- D3 Stability Requirements in Operation -- D3.1 Design requirements for stability and minimal motions in a storm, by V. N. Khramushin -- D3.2 Further Perspectives on Operator Guidance and Training for Heavy Weather Ship Handling, by L.J. Van Buskirk, J.McTigue and P.A. Alman -- D3.3 Onboard Analysis of Ship Stability Based on Time-Varying Autoregressive Modeling Procedure, by D. Terada and A. Matsuda -- D3.4 FLO/FLO Heavy lift critical stability phases, by P. Handler, V. Jarecki and H. Bruhns -- D4 Stability of Naval Vessles -- D4.1 Developing a Shared Vision for Naval Stability Assessment, by D. Perrault. T. Hughes and S. Marshall -- D4.2 Approaches for Evaluating Dynamic Stability in Design, by P.R. Alman -- D4.3 Tolerable Capsize Risk of a Naval Vessel, by A. Peters -- D4.4 Thoughts on Integrating Stability into Risk Based Methods for Naval Ship Design, by P. R. Alman -- Author Index -- Subject Index. |
| En línea: |
https://link-springer-com.biblioproxy.umanizales.edu.co/referencework/10.1007/97 [...] |
| Link: |
https://biblioteca.umanizales.edu.co/ils/opac_css/index.php?lvl=notice_display&i |
Contemporary Ideas on Ship Stability : Risk of Capsizing [documento electrónico] / Belenky, Vadim L., ; Spyrou, Kostas J., ; van Walree, Frans, ; Almeida Santos Neves, Marcelo, ; Umeda, Naoya, . - 1 ed. . - [s.l.] : Springer, 2019 . - XXVIII, 949 p. 545 ilustraciones, 378 ilustraciones en color. ISBN : 978-3-030-00516-0 Libro disponible en la plataforma SpringerLink. Descarga y lectura en formatos PDF, HTML y ePub. Descarga completa o por capítulos.
| Palabras clave: |
Estructuras Costa Afuera Mecánica de Medios Continuos Mecánica de fluidos Ingeniería costa afuera Ingeniería de dinámica de fluidos |
| Índice Dewey: |
627.98 |
| Resumen: |
Este libro contiene una selección de trabajos de investigación presentados en los 11.º y 12.º Talleres Internacionales sobre Estabilidad de Buques (Wageningen, 2010 y Washington DC, 2011) y en la 11.ª Conferencia Internacional sobre Estabilidad de Buques y Vehículos Oceánicos (Atenas, 2012). El libro está dirigido a la comunidad de estabilidad de buques y presenta ideas innovadoras sobre la comprensión de la naturaleza física de las fallas de estabilidad y metodologías para evaluar la estabilidad de los buques. Se espera un interés particular de los lectores en relación con la aparición de tipos de barcos nuevos y no convencionales; La evaluación de la estabilidad de estos buques no puede basarse en la experiencia existente y debe basarse en los primeros principios. Dado que la complejidad de los procesos físicos responsables de la falla de estabilidad ha hecho que la simulación numérica en el dominio del tiempo sea cada vez más la principal herramienta para la evaluación de la estabilidad, se hace especial énfasis en el desarrollo y aplicación de dichas herramientas. Los artículos incluidos han sido seleccionados por el comité editorial y han pasado por un proceso de revisión adicional, con al menos dos revisores asignados para cada uno. Muchos de los artículos se han actualizado o ampliado significativamente con respecto a su versión original, para reflejar mejor el estado de conocimiento sobre la estabilidad en el momento de la publicación del libro. El libro consta de cuatro partes: modelo matemático de los movimientos de los barcos en las olas, dinámica de grandes movimientos, investigación y requisitos experimentales, regulaciones y operaciones. |
| Nota de contenido: |
Preface -- Introductory Note -- Part A: Mathematical Model of Ship Motions in Waves -- A1 New Simulation Tools -- A1.1 TEMPEST: A New Computationally Efficient Dynamic Stability Prediction Tool, by W.F. Bellknap and A.M. Reed -- A2 Wave Enviroment -- A2.1 Modeling of Incident Waves near the Ship's Hull (Application of Autoregressive Approach in Problems of Simulation of Rough Seas), by A. B. Degtyarev and A.M. Reed -- A2.2 Evaluation of hydrodynamic pressures for autoregression model of irregular waves, by A.B. Degtyarev and I. Gankevich -- A3 Consideration of Forces -- A3.1 Application of computing hydrodynamic forces and moments on a vessel without Bernoulli's equation, by A. M. Reed -- A3.2 Modelling of Hull Lift and Cross Flow Drag Forces in Large Waves in a Computationally Efficient Dynamic Stability Prediction Tool, by M. J. Hughes, P. J. Kopp and R. W Miller -- A3.3 Improved Maneuvering-Based Mathematical Model for Free-Running Ship Motions in Following Waves using High-Fidelity CFD Results and System-Identification Technique, by M. Araki, H. Sadat-Hosseini, Y. Sanada, N. Umeda, F. Stern -- A4 Roll Damping -- A4.1 Some Results from a New Time-Domain Bilge Keel Force Model, by D. S. Greeley -- A4.2 Some Topics for Estimation of Bilge Keel Component of Roll Damping, by T. Katayama, Y. Yoshioka, T. Kakinoki and S. Miyamoto -- A4.3 Considerations for Bilge Keel Force Models in Potential Flow Simulations of Ship Maneuvering in Waves, by C. Bassler, R. Miller, A. M. Reed and A. Brown -- A4.4 Assessment of ship roll damping through full scale and model scale experiments and semi-empirical methods, by C.-J. Soder, A. Rosen, S. Werner, M. Huss and J. Kuttenkeuler -- A4.5 Roll damping of twin-screw vessels: comparison of RANSE with established methods, by S. Handschel, N. Kollisch and M. Abdel Maksoud -- A5.1 Calculation method to include water on deck effects, by N. Carette and F. van Walree -- A5.2 Study on the motions and flooding process of a damaged ship in waves, by S.-K. Cho, H.-G. Sung, S-Y. Hong, B.-W. Nam and Y.-S. Kim -- A5.3 Numerical Study of Damaged Ship Motion in Waves, by Z. Gao, Q. Gao and D. Vassalos -- A5.4 3D GPU SPH analysis of coupled sloshing and roll motion, by L. Perez Rojas and J.L. Cercos Pita -- Part B. Dynamics of large motions -- B1 Parametric Roll -- B1.1 Prediction of Parametric Rolling in Irregular Head Waves, by H. Hashimoto, N. Umeda and Y. Sogawa -- B1.2 Investigation on parametrically excited motions of Spar platforms in waves, by C. A. Rodriguez and M. A. S. Neves -- B1.3 A study on unstable motions of a tension leg platform in close proximity to a large FPSO, by L. A. Rivera, M. A. S. Neves, R. E. Cruz and P. T. T. Esperanca -- B2 Surf-riding -- B2.1 Continuation analysis of surf-riding and periodic responses of a ship in steep quartering seas, by I. G. Tigkas and K. J. Spyrou -- B2.2 Evaluation of the probability of surf-riding in irregular waves with the time-split method, by V. Belenky, K. J.Spyrou and K. M. Weems -- B2.3 Definitions of Celerity for Investigating Surf-riding in An Irregular Seaway, by K. J. Spyrou, V. Belenky, N. Themelis and K. M. Weems -- B3 Stochastic Dynamics -- B3.1 Estimating Dynamic Stability Event Probabilities from Simulation and Wave Modeling Methods, by M. R. Leadbetter, I. Rychlik and K. Stambaugh -- B3.2 Stochastic Wave Inputs for Extreme Roll in Near Head Seas, by D. H. Kim and A. W. Troesch -- B3.3 Critical wave groups vs. direct Monte-Carlo simulations for typical stability failure modes of a container ship, by V. Shigunov, N. Themelis and K. J. Spyrou -- B3.4 Application of stochastic dynamical system to nonlinear ship rolling problems, by J. Falzarano, Z. Su and A. Jamnongpipatkul -- B3.5 The Capsize Band Concept Revisited, by N. Tsakalakis, J.Cichowisz and D.Vassalos -- B3.6 Dependence of roll and roll rate in nonlinear ship motions in following and stern quartering seas, by V. Belenky and K. M. Weems -- C. Experimental research -- C1Experimemintal Techniques -- C1.1 Regular Wave Testing as a Crucial First Step for Dynamic Stability Evaluation, by D. D. Hayden, R. C. Bishop, and M. J. Dipper -- C1.2 An experimental study on characteristics of rolling in head waves for a vessel with non-linear GZ-curve, by T. Katayama, S. Miyamoto, H. Hashimoto and Y. Tai -- C1.3 Experimental Ship Dynamic Stability Assessment Using Wave Groups, by C. C. Bassler, M. J. Dipper, Jr. and M. Melendez -- C1.4 Dynamic transverse stability for high speed craft, by C. Q. Judge -- C1.5 Experiments on a Floating Body Subjected to Forced Oscillation in Calm Water at the Presence of an Open-to-Sea Compartment, by J. Chichowicz, D. Vassalos and A. Jasionowski -- C2 Validation and Benchmarking -- C2.1 Model characteristics and validation approach for a simulation tool supporting direct stability assessment, by W. F. Belknap, A. M. Reed and M. J. Hughes -- C2.2 Validation Approach for Statistical Extrapolation, by T.C. Smith -- C2.3 Total stability failure probability of a ship in beam wind and waves: model experiment and numerical simulation, by T. Kubo, N. Umeda, S. Izawa and A. Matsuda -- C2.4 Deterministic Validation of a Time Domain Panel Code for Parametric Roll, by F. van Walree and P. de Jong -- C2.5 26th ITTC Parametric Roll Benchmark Study, by A. M. Reed -- C2.6 An Approach to the Validation of Ship Flooding Simulation Models, by E. Ypma and T. Turner -- D. Requirements, regulations and operation -- D1 Developments in Intact Stability Regulations -- D1.1 Research towards Goal Based Standards for Container Shipping, by V. Shigunov, H. Rathje and O. El Moctar -- D1.2 On regulatory framework for direct stability assessment, by W. S. Peters, V. Belenky and A. M. Reed -- D1.3 A probabilistic analysis of stability regulations for river-sea ships, by I. Backalov -- D2 Developments in Damage Stability Regulations -- D2.1 Issues Related to Damage Stability, by A.L. Scott -- D2.2 Damage Stability Making Sense, by D. Vassalos -- D2.3 Coupling of progressive structural failure and loss of stability in the safe return to port framework , by S. Kwon, Q. Chen, G. Mermiris and D. Vassalos -- D2.4 Impact of Watertight Door Regulations on Ship Survivability, by J. PersonD2.5 Damage stability of passenger ships - notions and truths, by D. Vassalos -- D2.6 Defining Rational Damage Stability Requirements, by N. Tsakalakis, D. Konovessis and D. Vassalos -- D3 Stability Requirements in Operation -- D3.1 Design requirements for stability and minimal motions in a storm, by V. N. Khramushin -- D3.2 Further Perspectives on Operator Guidance and Training for Heavy Weather Ship Handling, by L.J. Van Buskirk, J.McTigue and P.A. Alman -- D3.3 Onboard Analysis of Ship Stability Based on Time-Varying Autoregressive Modeling Procedure, by D. Terada and A. Matsuda -- D3.4 FLO/FLO Heavy lift critical stability phases, by P. Handler, V. Jarecki and H. Bruhns -- D4 Stability of Naval Vessles -- D4.1 Developing a Shared Vision for Naval Stability Assessment, by D. Perrault. T. Hughes and S. Marshall -- D4.2 Approaches for Evaluating Dynamic Stability in Design, by P.R. Alman -- D4.3 Tolerable Capsize Risk of a Naval Vessel, by A. Peters -- D4.4 Thoughts on Integrating Stability into Risk Based Methods for Naval Ship Design, by P. R. Alman -- Author Index -- Subject Index. |
| En línea: |
https://link-springer-com.biblioproxy.umanizales.edu.co/referencework/10.1007/97 [...] |
| Link: |
https://biblioteca.umanizales.edu.co/ils/opac_css/index.php?lvl=notice_display&i |
|  |
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