chapter SYMPOSIUM 1: -- chapter AN INDUSTRIAL ECOLOGY APPROACH TO DREDGING THE NEW YORKJNEW JERSEY HARBOR: THE CASE OF MERCURY -- chapter SYMPOSIUM 2: -- chapter & Hazardous Waste Conference -- chapter 5 Variation of Gel Viscosity with Time -- chapter l Noll, R. Mark., Craig Bratlett and Tina M. Dochat. 1992. -- chapter m -- -- chapter SYMPOSIUM -- chapter P. putida B using the Biolog Bacteria -- chapter = rate of -- chapter = (5x5). The contours were generated using a 3D contour feature of Axum 5.0 -- chapter mM sulfate concentration was added, Ni toxicity still -- chapter SYMPOSIUM 4: -- chapter ENERGY RECOVERY: AN ESSENTIAL TOOL OF INTEGRATED WASTE MANAGEMENT -- chapter a,* ada -- ,+a e a, 4a s a -- chapter A RE-USABLE LANDFILL -- chapter Specific rate constant -- chapter. / chapter SYMPOSIUM 5: -- chapter I OBSERVED MONTHLY WATER AND SALT BUDGET -- chapter EPA 670/2-74-033. Washington, DC: US Environmental -- chapter and Distant Places -- chapter SYMPOSIUM 6: -- chapter SYMPOSIUM -- chapter -- chapter Atmospheric Chemistry of Alternative Fuels -- chapter Computing the properties of the Cu-thioarsenite complex -- chapter AHfOo f trichlorobenzenes. If these points are removed from the regression, the -- chapter SYMPOSIUM -- chapter Development of an Automated Monitoring System for a Created Pond At Great Kills Park, Staten Island, New York -- chapter Design and Construction of a Coupled Subsurface Imagingl Remediation System -- chapter SYMPOSIUM 9: -- chapter CORRELATING LAMINAR BURNING VELOCITIES USING PERFECTLY STIRRED REACTOR THEORY FOR HAZARDOUS WASTE INCINERATION ROBERT BARAT Department of Chemical Engineering New Jersey Institute of Technology Newark, NJ 07102 Abstract The laminar burning velocity of a gaseous fuel/oxidant feed is a strong function of the feed mixture composition. In this paper, published values are successfully correlated with the square -- root of the ratio of the thermal diffusivity of the fuevoxidant feed mixture to the space time at extinction of a hypothetical perfectly stirred reactor burning this feed. The simulations use detailed reaction mechanisms. The correlation would be especially useful for estimating the effect chemical wastes would have on the -- chapter Laminar Burning Velocity combustion wave through a gaseous fueVoxidant mixture (Fig. -- was considered by Mallard and Le Chatelier in the 19 -- chapter Since the flow cross section can be taken as constant, continuity -- provides that m p,v, where = gas density. By definition, the laminar burning velocity S, = v,. Substitution into The group is the thermal diffusivity charactefistic reaction rate The exponential temperature dependence of dominates the linear temperature term. The simple thermal analysis, then, holds that the is proportional to the square root of the product of the thermal diffusivity of the feed gas weight of k, and PSR volume. The enthalpy balance is: -- chapter where h, = enthalpy of species k, Q= external heat loss rate, and = -- total number of species. With a user-supplied reaction mechanism, this system of equations can be solved using the Chemkin PSR computer-package (Gbbmg et 1986). For a given-mass flow rate, a stable operating condition exists at the high temperature solution T, Y,. It is well known (e.g. Barat, 2001) that, as the mass flow rate at constant feed composition is increased, an extinction (ublowout / chapter Wide range of values (18 -- Wide range of feed thermal diffusivities (0.038 2.2) Range of hydrocarbon fuels (C, C, Oxyhydrocarbon fuel Fuel mixture (Town Gas) N-based fuels (NH, HCN) Range of diluents (CO, He) -- chapter For systems containing chlorinated species, the sub-mechanism of Ho et al. ( 1992) was attached to the listing. For hydrocarbon -- content of a hydrocarbon/air incineration feed leads to increased emissions of products of incomplete combustion (PICs) and decreased combustion stability. This is directly related to a decrease in as the chlorine content rises. Commercial-scale combustors and incinerators operate at large, / chapter Brouwer, J., Longwell, J. P., Sarofim, A., Barat, R B., & Bozzelli, J. W. Stirred Reactor. Combustion Science and Technology, 85, 87-100. Castaldi, J., Marinov, Melius, F., Huang, J., Senkan, S. M., -- Glarborg, P., Kee, R J., Grcar, J. F., & Miller, J. (1986). A Fortran Program for Modeling Well-Stirred Reactors. Sandia Report SAND 86-8209. Livermore, Sandia National Laboratories. Glassman, (1987). Combustion, Second Edition. New York Academic Press. -- chapter SYMPOSIUM -- chapter = Min {Regeneration -- ) depending on the case. -- chapter GIS Visualization of mercury concentrations in sediments of the New YorWNew Jersey Harbor -- chapter Integrated Waste Management Options for New York City Municipal Solid Waste -- chapter & Hazardous Waste Conference -- chapter DEPOSITION OF CHARGED SOOT PARTICLES IN TUBES -- chapter Managing Municipal Solid Wastes: Japan, U.S. and EU -- chapter Understanding of PCB Structural Properties Using Classical Thermodynamics and Computational Modeling -- chapter Time -- chapter AUTHOR INDEX -- chapter J., J. -- chapter INDICES FOR 2 8 ~2~9, ~ ~~OT, H ~ ~ -- INDUSTRIAL WASTE CONFERENCES -- chapter J.255 XXXII,93,331, 777,787 -- chapter JG. A,., XXVIII, 351 -- chapter 11 W J., -- chapter J. J.