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Heat Transfer Analyses for Grout Disposal of Radioactive Double-Shell Slurry and Customer Wastes
Grout immobilization is being considered by Rockwell Hanford Operations (Rockwell Hanford) as a permanent disposal method for several radioactive waste streams. These include disposal of customer and double-shell slurry wastes in earthen trenches and in single-shell underground waste storage tanks. Heat transfer studies have previously been made to determine the maximum heat loading for grout disposal of various wastes under similar conditions, but a sensitivity analysis of temperature profiles to input parameters was needed. This document presents the results of heat transfer calculations for trenches containing grouted customer and double-shell slurry wastes and for in situ disposal of double-shell wastes in single-shell, domed concrete storage tanks. It discusses the conditions that lead to maximum grout temperatures of 250 sup 0 F during the curing stage and 350 sup 0 F thereafter and shows the dependence of these temperatures on input parameters such as soil and grout thermal conductivity, grout specific heat, waste loading, and disposal geometries. Transient heat transfer calculations were made using the HEATING6 computer code to predict temperature profiles in solidified low-level radioactive waste disposal scenarios at the Rockwell Hanford site. The calculations provide guidance for the development of safe, environmentally acceptable grout formulas for the Transportable Grout Facility. 11 refs. (ERA citation 12:034658)
Heat Transfer Analyses for Grout Disposal of Radioactive Double-Shell Slurry and Customer Wastes
Grout immobilization is being considered by Rockwell Hanford Operations (Rockwell Hanford) as a permanent disposal method for several radioactive waste streams. These include disposal of customer and double-shell slurry wastes in earthen trenches and in single-shell underground waste storage tanks. Heat transfer studies have previously been made to determine the maximum heat loading for grout disposal of various wastes under similar conditions, but a sensitivity analysis of temperature profiles to input parameters was needed. This document presents the results of heat transfer calculations for trenches containing grouted customer and double-shell slurry wastes and for in situ disposal of double-shell wastes in single-shell, domed concrete storage tanks. It discusses the conditions that lead to maximum grout temperatures of 250 sup 0 F during the curing stage and 350 sup 0 F thereafter and shows the dependence of these temperatures on input parameters such as soil and grout thermal conductivity, grout specific heat, waste loading, and disposal geometries. Transient heat transfer calculations were made using the HEATING6 computer code to predict temperature profiles in solidified low-level radioactive waste disposal scenarios at the Rockwell Hanford site. The calculations provide guidance for the development of safe, environmentally acceptable grout formulas for the Transportable Grout Facility. 11 refs. (ERA citation 12:034658)
Heat Transfer Analyses for Grout Disposal of Radioactive Double-Shell Slurry and Customer Wastes
S. M. Robinson (Autor:in) / T. M. Gilliam (Autor:in) / E. W. McDaniel (Autor:in)
1987
46 pages
Report
Keine Angabe
Englisch
Radioactive Wastes & Radioactivity , Hanford Reservation , Radioactive Waste Disposal , Radioactive Wastes , Temperature Distribution , Calculation Methods , Computer Codes , Grouting , H Codes , Heat Transfer , Radiative Decay , Reaction Heat , Solidification , Time Dependence , Underground Disposal , ERDA/052002 , ERDA/053000
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