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An Updated International Survey ofComputer Models 99 Model Country Model Country Table 5. Continued. Identifying Reference Description TR8 NEW ZEALAND [99] Fire resistance of concrete slabs and floor systems WSHAPS CANADA [100] Fire resistance of loaded, protected W-shape steel columns These models have been identified by the authors, but no references or survey information was provided: ABAQUS (US), ALGOR (US), ANSYS (US), COSMOS/M (US), FASBUS, LUSAS (UK), NASTRAN (US), TAS (US), VULCAN (UK), WALL2D (Canada). Table 6. Identified miscellaneous models. Identifying Reference Description ALARM US [60] Economic optimization of code compliance measures ASCOS US [61] Network air flow analysis ASKFRS UK [134] Suite of models including a zone model ASMET US [62] Package of engineering tools for analysis of atria smoke management BREAK1 US [119] Window response to fire (glass breakage) Brilliant NORWAY [128] CFD model combined with analytical models CONTAMW US [63] Airflow model CRISP UK [64] Fire zone model with egress and risk assessment FIERAsystem CANADA [65] Risk assessment model that includes a suite of correlations FireCad US [129] Front end for CFAST FiRECAM CANADA [66] Risk damage assessment FIRESYS NEW ZEALAND [131] Suite of programs for designers working under performance-based fire codes FireWalk US [67] Uses CFAST zone model with improved visualization FIREX GERMANY [68] Simple zone models mixed with empirical correlations FIVE US [120] Fire induced vulnerability evaluation FPETOOL US [69] Suite of models and correlations including the zone model fire simulator FRAME BELGIUM [70] Fire risk assessment model FriskMD US [121] Risk-based version of zone model FireMD (continued)
100 S. M. OLENICK AND D. J. CARPENTER Model Country Table 6. Continued. Identifying Reference Description HAZARD I US [5] Zone model with extensive egress capabilities MFIRE US [71] Mine ventilation systems RadPro AUSTRALIA [122] Fire radiation intensity model RISK-COST CANADA [72] Computes the expected risk to life and the fire cost expectation RiskPro AUSTRALIA [122] Risk ranking model SMACS US [73] Smoke movement through air-conditioning systems SMOKEVIEW US [74] Visualization program for FDS SPREAD US [75] Predicts burning rate and spread rate of a fire ignited on a wall using data from bench-scale tests UFSG US [76] Predicts upward flame spread and growth on non-charring and charring materials WALLEX CANADA [77] Calculation of heat transfer from window fire plume to wall above window These models have been identified by the authors, but no references or survey information was provided: COFRA (US), DOW Indices (US), FREM (Australia), Risiko (Switzerland). CONCLUSIONS AND FUTURE WORK The number of models identified by the fire engineering community has increased substantially over the last ten years. Of particular interest is the increase in available field and miscellaneous models. The field models are increasing in numbers and complexity due to increases in available computer resources, research, and practical knowledge. The miscellaneous models are increasing in numbers due to a greater, more accessible database of fire data. Therefore, computer fire modeling is moving in a trend to provide predictions that are more accurate, as well as predictions about fire phenomenon that previously no computer fire model addressed. The database of survey results will be made available on the internet for free, at www.firemodelsurvey.com and will likely supplement another model survey being conducted currently by the International Council for Research and Innovation in Building and Construction (CIB) which is surveying models on building performance, including fire performance [7]. It is the hope of the authors that the developers will continue to utilize the survey as a means of providing information about their model to the fire engineering community.
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kvivFSE sp2inl1 BRANDDYNAMICA & BRA
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2. Kwantitatieve Analyse • Uitvoe
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• Specifieke brandlast : calorisc
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kvivFSE sp2tsq3 Volontwikkeld na Fl
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Q = a .t² (kW) 20,000 18,000 16,00
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Andere factoren • Pré-flashover
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Met een T² groeiende vuurhaard 1)
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FAST Belangrijk : plaats vd vuurhaa
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Automatisch reageren op temperatuur
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Page 29 and 30: kvivFSE sp2rti15 FAST (Tsq) 8
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