FireDOC Search

displaying 911 - 920 results in total 1472

  • Garboczi, E. J.; Bentz, D. P.
    view article (4.992243)

    Digitized Simulation of Mercury Intrusion Porosimetry.
    National Institute of Standards and Technology, Gaithersburg, MD
    National Institute of Standards and Technology and American Ceramic Society. Advances in Cementitious Materials. Ceramic Transactions. Volume 16. July 22-26, 1990, Gaithersburg, MD, Mindess, S., Editors, 365-379 p., 1991

  • Handa, T.
    view article (4.992243)

    Characterization of Factors in Estimating Fire Hazard by Furnace Test Based on Patterns in the Simulation of Fire for the Classification of Organic Interior Building Materials. Part 2. Checks on Factors Concerning the Surface Flame-Spread Rate and Smoke-Evolution of Organic Building Materials by Small Inclined-Type Test Furnace.
    Science University of Tokyo, Japan
    Nihon Kasaigakkai Renbunshu, Vol. 21, No. 1, 25-32, 1971

  • Levine, R. S.; Nelson, H. E.
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    Full Scale Simulation of a Fatal Fire and Comparison of Results With Two Multiroom Models. Volume 2. Data.
    National Institute of Standards and Technology, Gaithersburg, MD
    NISTIR 90-4268, March 5, 1990, 121 p.

  • Bentz, D. P.; Garboczi, E. J.
    view article (4.992243)

    Guide to Using HYDRA3D: A Three-Dimensional Digital-Image-Based Cement Microstructural Model.
    National Institute of Standards and Technology, Gaithersburg, MD
    NISTIR 4746, January 1992, 95 p.

  • Park, C.; Bushby, S. T.; Kelly, G. E.
    view article (4.992243)

    Simulation of a Large Office Building System Using the HVACSIM+ Program.
    National Institute of Standards and Technology, Gaithersburg, MD
    ASHRAE Transactions, Vol. 95, No. 1, 1989
    CH-89-6-4,
    American Society of Heating, Refigerating and Air-Conditioning Engineers, Inc. (ASHRAE). Winter Meeting. January 28-February 1, 1989, Chicago, IL, 1989

  • Takayama, E.
    view article (4.992243)

    Chapter 1. Section 2. Prediction of Urban Fire Propagation. 1.2.1. Main Causes of Urban Fire Propagation.
    Report of the Development of Methods for the Protection of Cities Against Fire, Ministry of Construction, Japan, Takayama, E., Editors, 84-436 p., 1982

  • Mayer, M. D.
    view article (4.992243)

    Use of Simulated Apparel Fire Accidents to Determine the Relative Flammability of Fabrics.
    Information Council on Fabric Flammability. Annual Meeting, 7th. December 5, 1973, ICFF, New York, NY, New York, NY, 263-298 p., 1973

  • Nyden, M. R.; Forney, G. P.; Brown, J. E.
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    Molecular Modeling of Polymer Flammability: Application to the Design of Flame-Resistant Polyethylene.
    National Institute of Standards and Technology, Gaithersburg, MD
    Macromolecules, Vol. 25, No. 6, 1658-1666, 1992

  • Crawford, A. B.
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    Simulation of an Aircraft Dry Bay Fuel Fire Caused by a 23 Millimeter High-Explosive Incendiary Projectile.
    Air Force Institute of Technology, WPAFB, OH
    AFIT/GOR/ENS/92M-01, March 1992, 168 p.

  • Xiang, L.; McDonough, J. M.; Saito, K.
    view article (4.992243)

    Numerical Simulation of Flow and Temperature Field Induced by Coflow Laminar DiffusionFlames.
    Kentucky Univ., Lexington
    University of Science and Technology of China. Fire Science and Technology. Asian Conference, 1st (ACFST). October 9-13, 1992, International Academic Publishers, China, Hefei, China, Weicheng, F.; Zhuman, F., Editors, 294-299 p., 1992