A platform for research: civil engineering, architecture and urbanism
A platform for research: civil engineering, architecture and urbanism
Buoyancy Driven Flow as the Forcing Function of Smoke Transport Models
Flow at vents is the major driving force in smoke transport models. The precision with which we can calculate these flows determines to a great extent how accurately we can model buoyant flow and the inherent speed of the models. This report describes some of the problems encountered in calculating these flows, and gives a general algorithm for their calculation.
Buoyancy Driven Flow as the Forcing Function of Smoke Transport Models
Flow at vents is the major driving force in smoke transport models. The precision with which we can calculate these flows determines to a great extent how accurately we can model buoyant flow and the inherent speed of the models. This report describes some of the problems encountered in calculating these flows, and gives a general algorithm for their calculation.
Buoyancy Driven Flow as the Forcing Function of Smoke Transport Models
W. W. Jones (author) / X. Bodart (author)
1986
27 pages
Report
No indication
English
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