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Trans RINA, Vol 157, Part C1, Intl J Marine Design, Jan - Dec 2015 


Incorporate safety devices – Design into the system automatic devices which, when a specified hazard occurs, prevent the system from entering a dangerous state.


 


Provide warning devices – These should activate early, leaving the operator time to stop a critical system state developing.


Develop procedures and training – Provide adequate training in procedures to equipment in a safe manner.


operate System-induced errors system


(competency organizational


assurance), reflect deficiencies in the


implementation of the HFI processes. They include mistakes in designating the number and type of personnel,


operating policies, training data


responsibilities, and maintenance


requirements, and support. Design factors are related to these errors and include aspects of the system hardware, software, procedures, environment and training which affect the likelihood of human error. They result from human incompatibilities with the design of equipment. Taking an integrated Human Factors approach in the design process avoids mis-matches between


resources, logistics,


[20] successful technology transfer requires a framework for adaption and evaluation.


6. ACKNOWLEDGEMENTS


The authors wish to thank Mainprize Offshore, KPM- Marine and Marine


Automation Propulsion for


supporting the ongoing Marine Design project presented in this paper. The authors gratefully acknowledge the grant support received to carry out the work presented in this paper as an integral part of the Leonardo TOI funded project EBDIG-WFSV, funded under the EU Lifelong Learning


Programme, grant number:


UK/13/LLP-


LdV/TOI-621. The content of the publication is the sole responsibility of the authors, the European Commission is not liable for any use that may be made of the information.


7. 1.


system


design and human capabilities. The objectives of HFI and HFE are to provide systems and equipment that reduce the potential for human error, increase system availability, lower lifecycle costs, improve safety, and enhance overall performance (McSweeney, Pray, and Craig, [29]). The key to demonstrating the utility of Human Factors is not to count the cost of investing in it, but to calculate the savings that it makes on a through- life basis.


5. CONCLUSIONS


Overall it is essential that Human Systems Integration (HSI) is embedded within the WFSV design process. As the implementation of good Human Factors practices into the design can make considerable through life savings. A critical part of HSI is the implementation of navigation best practice, known as Dynamic NAVigation (DYNAV) for HSC operations. It provides the interoperability capability for organisations tasked with crewing WFSVs. The Marine Design approach to WFSV bridge layout development


incorporates HSI and use has shown the


significant benefits of the multidisciplinary approach. The Transfer of Innovation of DHM from the automotive sector through the


of RAMSIS and RAMSIS


cognitive shows the potential to reduce development costs in the design of current programmable display screen technology.


The issues of high levels of vibration and motion of a vessel at speed, which can impede the operators ability to read information from the display system, this could be an opportunity for technology transfer. Where, the use of HUD and eye tracking could be used to provide motion compensated displays. As identified in the 5M's model


© 2015: The Royal Institution of Naval Architects 7. 4. 2. 3. REFERENCES


DE NOBLET, J., 'Industrial design: reflection of a century', Flammarion publishing, 1996, ISBN 978-2-0801-35391


BODKER, S., 'Scenarios in user-centred design- setting the stage for reflection and action', Journal of Interacting with Computers, issue 13, p61-75, Elsevier Publishing, 2000.


THALEN, J., and GARDE, J. ‘Capturing use: user involvement and participatory design’, in de BONT,C., den


OUDEN, E.,


SCHIFFERSTEIN, R., SMULDERS, F., and van der VOORT, M.,(eds),'Advanced Design Methods for Successful Innovation: Recent methods from design research and design consultancy in the Netherlands', Design United, September 2013, pp 33-54. ISBN 978 94 6186 213 6.


DOBBINS, T., HILL, J., MCCARTAN, S.,


THOMPSON T. (2011) Enhancing Marine Ergonomic Design


VIA Digital Human


Modeling. RINA conference on Human Factors in Ship Design, 16 - 17 November, RINA HQ, London, UK.


5. 6.


VAN DER MEULEN, P., and SEIDL, A.( 2007) Digital Human Modeling, Lecture Notes in Computer Science, , Vol. 4561, 1008-1017


VAN DER MEULEN, P. and DICLEMENTE, P., (2001) "Ergonomic Evaluation of an Aircraft Cockpit with RAMSIS 3D Human Modeling Software," SAE Technical Paper 2001-01-2115. REMLINGER,


W., BUBB, H., and


WIRSCHING, H.(2009),Sight Analysis with ‘RAMSIS Cognitive’: Step II, SAE Technical Paper 2009-01-2295, (van de Vrandea et al., 2009).


8.


Offshore wind Journal, 2nd quarter, 2013, http://www.rivieramm.com/publications/offshor e-wind-journal-38/digital-edition-605, accessed 10/12/14


C-159


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