Jørgen Juncher Jensen
Current Organizations / Institutes
The organizations/institutes from the scholar's latest article
Previous Organizations / Institutes
The organizations / institutes from the scholar's other articles in the past ten years
Research Subjects
Jørgen Juncher Jensen has a total of 61 co-authors. Here are the top co-authors by number of shared publications:
- Ulrik Dam Nielsen
DTU Mechanical Engineering, Technical University of Denmark, 2800 Kgs. Lyngby, Denmark
12 shared publications - Preben Terndrup Pedersen
Technical University of Denmark, Denmark
5 shared publications Jelena Vidic-Perunovic
4 shared publicationsP. Terndrup Pedersen
Department of Ocean Engineering, Technical University of Denmark, DK-2800 Lyngby, Denmark
4 shared publicationsSopheak Seng
4 shared publications- Anders Smærup Olsen
Wind and Energy Systems, DTU, Roskilde
3 shared publications
Latest Publications
- 29 March 2023
- Published by Springer Nature
- p. 59-71
Second Generation Intact Stability Criteria—Robustness and Consistency Analysis
- 29 March 2023
- Published by Springer Nature
- p. 59-71
Second Generation Intact Stability Criteria—Robustness and Consistency Analysis
- 6 October 2020
- Published by Springer Nature
- p. 760-769
Use of Prolate Spheroidal Wave Functions in the Time Domain First Order Reliability Method
- 6 October 2020
- Published by Springer Nature
- p. 760-769
Use of Prolate Spheroidal Wave Functions in the Time Domain First Order Reliability Method
- 1 July 2020
- Published by Elsevier in Marine Structures
- Vol. 72
Extreme value prediction of nonlinear ship loads by FORM using Prolate Spheroidal Wave Functions
- 1 July 2020
- Published by Elsevier in Marine Structures
- Vol. 72
Extreme value prediction of nonlinear ship loads by FORM using Prolate Spheroidal Wave Functions
- 1 July 2019
- Published by Elsevier in Marine Structures
- Vol. 66, 52-65
Extreme value predictions using FORM for ship roll motions
- 1 July 2019
- Published by Elsevier in Marine Structures
- Vol. 66, 52-65
Extreme value predictions using FORM for ship roll motions
- 1 March 2018
- Published by Elsevier in Marine Structures
- Vol. 58, 31-52
Response predictions using the observed autocorrelation function
- 1 March 2018
- Published by Elsevier in Marine Structures
- Vol. 58, 31-52
Response predictions using the observed autocorrelation function
- Open Access
- 1 November 2017
- Published by Elsevier in Ocean Engineering
- Vol. 144, 235-242
Statistical prediction of parametric roll using FORM
- 1 November 2017
- Published by Elsevier in Ocean Engineering
- Vol. 144, 235-242
Open AccessStatistical prediction of parametric roll using FORM
- 1 September 2017
- Published by The Society of Naval Architects and Marine Engineers in Journal of Ship Research
- Vol. 61 (03) , 167-176
Intact Stability Analysis of Dead Ship Conditions using FORM
The international Maritime Organization (IMO) Weather Criterion has proven to be the governing stability criteria regarding minimum metacentric height for e.g., small ferries and large passenger ships. The formulation of the Weather Criterion is based on some empirical relations derived many years ago for vessels not necessarily representative for current new buildings with large superstructures. Thus, it seems reasonable to investigate the possibility of capsizing in beam sea under the joint action of waves and wind using direct time domain simulations. This has already been done in several studies. Here, it is combined with the first order reliability method (FORM) to define possible combined critical wave and wind scenarios leading to capsize and corresponding probability of capsize. The FORM results for a fictitious vessel are compared with Monte Carlo simulations, and good agreement is found at a much lesser computational effort. Finally, the results for an existing small ferry will be discussed in the light of the current weather criterion. 1. Introduction: Recently, the International Maritime Organization (IMO) has initiated a thorough revision of the intact stability rules in the framework of goal-based design, e.g., Peters et al. (2013). Several draft guidelines have been issued, e.g., SDC 1/INF.8 (IMO 2013) discussing in details the requirements for the hydrodynamic software to be applied including qualitative and quantitative assessment procedures. The focus so far has been mostly on failure modes related to the change of righting lever in waves, notably parametric rolling and pure loss of stability, whereas the dead ship behavior in beam sea still is based on the existing Weather Criterion issued by IMO (1985) as Resolution A.562. This criterion is based to a large extent on model tests of older hull forms and does not provide any probability of capsize for a given vessel, just a pass/no pass result. Furthermore, the wave environment is not explicitly specified in the criterion thus leading to the same requirement whether the ship is sailing in restricted areas or not. A very detailed and precise description of the drawbacks in the IMO Weather Criterion, as applied to modern ships, is given in Bulian and Francescutto (2004). In a recent study by Tompuri et al. (2015), a detailed investigation on application of the second generation intact stability criteria has been done. However, the criterion for dead ship condition is excluded from this thorough study because the criterion is thought to be still in the early phase of development.
- 1 September 2017
- Published by The Society of Naval Architects and Marine Engineers in Journal of Ship Research
- Vol. 61 (03) , 167-176
Intact Stability Analysis of Dead Ship Conditions using FORM
The international Maritime Organization (IMO) Weather Criterion has proven to be the governing stability criteria regarding minimum metacentric height for e.g., small ferries and large passenger ships. The formulation of the Weather Criterion is based on some empirical relations derived many years ago for vessels not necessarily representative for current new buildings with large superstructures. Thus, it seems reasonable to investigate the possibility of capsizing in beam sea under the joint action of waves and wind using direct time domain simulations. This has already been done in several studies. Here, it is combined with the first order reliability method (FORM) to define possible combined critical wave and wind scenarios leading to capsize and corresponding probability of capsize. The FORM results for a fictitious vessel are compared with Monte Carlo simulations, and good agreement is found at a much lesser computational effort. Finally, the results for an existing small ferry will be discussed in the light of the current weather criterion. 1. Introduction: Recently, the International Maritime Organization (IMO) has initiated a thorough revision of the intact stability rules in the framework of goal-based design, e.g., Peters et al. (2013). Several draft guidelines have been issued, e.g., SDC 1/INF.8 (IMO 2013) discussing in details the requirements for the hydrodynamic software to be applied including qualitative and quantitative assessment procedures. The focus so far has been mostly on failure modes related to the change of righting lever in waves, notably parametric rolling and pure loss of stability, whereas the dead ship behavior in beam sea still is based on the existing Weather Criterion issued by IMO (1985) as Resolution A.562. This criterion is based to a large extent on model tests of older hull forms and does not provide any probability of capsize for a given vessel, just a pass/no pass result. Furthermore, the wave environment is not explicitly specified in the criterion thus leading to the same requirement whether the ship is sailing in restricted areas or not. A very detailed and precise description of the drawbacks in the IMO Weather Criterion, as applied to modern ships, is given in Bulian and Francescutto (2004). In a recent study by Tompuri et al. (2015), a detailed investigation on application of the second generation intact stability criteria has been done. However, the criterion for dead ship condition is excluded from this thorough study because the criterion is thought to be still in the early phase of development.
- 1 January 2016
- Published by Elsevier in Applied Ocean Research
- Vol. 54, 73-86
Estimation of wind sea and swell using shipboard measurements – A refined parametric modelling approach
- 1 January 2016
- Published by Elsevier in Applied Ocean Research
- Vol. 54, 73-86
Estimation of wind sea and swell using shipboard measurements – A refined parametric modelling approach
- 1 December 2015
- Published by Elsevier in Marine Structures
- Vol. 44, 203-210
Fatigue damage estimation in non-linear systems using a combination of Monte Carlo simulation and the First Order Reliability Method
- 1 December 2015
- Published by Elsevier in Marine Structures
- Vol. 44, 203-210
Fatigue damage estimation in non-linear systems using a combination of Monte Carlo simulation and the First Order Reliability Method