1 고권현, "환기부족 구획화재에 대한 FDS 해석 및 검증" 한국화재소방학회 23 (23): 103-109, 2009
2 K. McGrattan, "Verification & Validation of Selected Fire Models for Nuclear Power Plant Applications in Volume 7: Fire Dynamic Simulator (FDS)" 2007
3 R.W. Bilger, "Turbulent Diffusion Flames" 21 : 101-135, 1989
4 T. Poinsot, "Theoretical Numerical Combustion" Edwards 2001
5 W.M. Pitts, "The Global Equivalence Ratio Concept nd the Formation Mechanism of Carbon Monoxide in Enclosure Fire" 21 : 197-237, 1995
6 R.A. Bryant, "Particle Image Velocimetry Measurements of Buoyancy Induced Flow Through a Doorway" NIST 2005
7 A. Bounagui, "Optimizing the Grid Size Used in CFD Simulations to Evaluate Fire Safety in Houses" 2003
8 W. Mell, "Numerical Simulation and Experiments of Burning Douglas Fir Trees" 156 : 2023-2041, 2009
9 K. McGrattan, "Improved Radiation and Combustion Routines for a Large Eddy Simulation Fire Model" 827-838, 2003
10 J. Smagorinsky, "Gerneral Circulation Experiments with the Primitive Equations" 91 (91): 99-164, 1963
1 고권현, "환기부족 구획화재에 대한 FDS 해석 및 검증" 한국화재소방학회 23 (23): 103-109, 2009
2 K. McGrattan, "Verification & Validation of Selected Fire Models for Nuclear Power Plant Applications in Volume 7: Fire Dynamic Simulator (FDS)" 2007
3 R.W. Bilger, "Turbulent Diffusion Flames" 21 : 101-135, 1989
4 T. Poinsot, "Theoretical Numerical Combustion" Edwards 2001
5 W.M. Pitts, "The Global Equivalence Ratio Concept nd the Formation Mechanism of Carbon Monoxide in Enclosure Fire" 21 : 197-237, 1995
6 R.A. Bryant, "Particle Image Velocimetry Measurements of Buoyancy Induced Flow Through a Doorway" NIST 2005
7 A. Bounagui, "Optimizing the Grid Size Used in CFD Simulations to Evaluate Fire Safety in Houses" 2003
8 W. Mell, "Numerical Simulation and Experiments of Burning Douglas Fir Trees" 156 : 2023-2041, 2009
9 K. McGrattan, "Improved Radiation and Combustion Routines for a Large Eddy Simulation Fire Model" 827-838, 2003
10 J. Smagorinsky, "Gerneral Circulation Experiments with the Primitive Equations" 91 (91): 99-164, 1963
11 A. Tewarson, "Generation of Heat and Chemical Compounds in Fires" SFPE Handbook of Fire Protecting Engineering 1995
12 S. Leonard, "Generation of CO and Somke during Underventilated Combustion" 98 : 20-34, 1994
13 J. Smagorinsky, "General Circulation Experiments with the Primitive Equations. I. The Basic Experiment" 91 (91): 99-164, 1963
14 K. McGrattan, "Fire Dynamic Simulator (Version 5): Technical Reference Guide" NIST 2007
15 J.E. Floyd, "Extending theMixture Fraction Concept to Address Under-ventilated Fires" 44 : 291-300, 2009
16 A. Lock, "Experimental Study of the Effects of Fuel Type, Fuel Distribution, and Vent Size on Full-scale Underventilated Compartment Fires in an ISO 9705 room" NIST 2008
17 V. Novozhilov, "Computational Fluid Dynamics Modeling of Compartment Fires" 27 : 611-666, 2001
18 N.P. Bryner, "Carbon Monoxide Production in Compartment Fires - Reduced-Scale Enclosure Test Facility" NIST 1994
19 G.D. Raithby, "A Finite-Volume Method for Predicting Radiant Heat Transfer in Enclosures with Participating Media" 112 (112): 415-423, 1990